Newly Characterized Genes

CHECK HERE FOR DESCRIPTIONS OF NEWLY CHARACTERIZED MAIZE GENES!

With the overwhelming number of genes that are being discovered by phenotypic and sequence analyses, the MaizeGDB staff is missing some that should be included in MaizeGDB. We need your help! Please let us know about new genes that you're working on or have recently read about.

MaizeGDB prefers not to assign formal gene names to gene models based purely on orthology. Known difficulties include inclusivity (there are over 10,000 functionally characterized Arabidopsis genes)* and some likelihood of errors in inferred functions. Unlike gene models, gene names are generally conserved unless differently named genes are found to be allelic. Of particular note, naming priveleges are customarily held by researchers who first confirm function.

We encourage researchers to use the annotation tool on the MaizeGDB gene model pages to add their insights about putative function, especially when not currently part of the Phytozome or Gramene pipelines.

Below is a list of newly reported or newly characterized genes (new reference, new gene product, and/or new variation) with which you may not yet be familiar. The genes are sorted by the last time the gene has been updated. To suggest genes for inclusion in this list, email us and include the gene name, full name, chromosome or bin, and a recent reference.

If you cannot find the gene you would like to recommend in the database, send us an email so that we can add it to the database!

This page is based on our monthly release. The updates are made around 4:00am CST.


         Recommended Genes


Most recent data | Six months | One year | All time

New or updated genes since one year ago. The cutoff date is May 9th, 2023.

Last UpdateGeneFull Name : DescriptionChromosome
or Bin
Gene
Model
Recent ReferenceOrthologsUpdate information
todaypfk4 phosphofructose kinase4:
 
   Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: August 12th, 2016
todayrpi2 ribose 5-phosphate isomerase2:
 
   Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: October 21st, 2021
todaycel22 cellulase22:
 
   Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.   LOC_Os04g41970 (MSU/TIGR)
Os04g0497200 (Gramene)
Reference: May 8th, 2024
Gene Product: March 20th, 2023
todaycel20 cellulase20:
 
   Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: March 20th, 2023
todaygpdh3 glucose-6-phosphate dehydrogenase3:
 
   Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
todayagpsl1 ADP glucose pyrophosphorylase small subunit leaf1:
1.07
GRMZM2G163437
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Variation: April 3rd, 2011
Gene Model: June 15th, 2012
todayincw1 cell wall invertase1:
5.04
   Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: June 12th, 2018
Variation: May 27th, 2015
todayss6 starch synthase6:
5.03
   Zhang, H-Y et al. 2024. The relationship between starch synthesis enzyme activity, gene expression, and amylopectin fine structure in waxy maize Cereal Res Commun. :doi: 10.1007/s42976-024-00509-3.     Reference: May 8th, 2024
Gene Product: October 14th, 2016
todaytrps2 trehalose-6-phosphate synthase2:
1.03
GRMZM2G099860
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: October 3rd, 2020
Gene Model: February 11th, 2019
todayaco3 aconitase3:
9.07
GRMZM2G009808
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Gene Model: March 29th, 2015
todayadh2 alcohol dehydrogenase2:
4.03
GRMZM2G098346
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: July 8th, 2009
Variation: September 1st, 2003
Gene Model: May 31st, 2014
todayae1 amylose extender1:
5.04
   Zhang, H-Y et al. 2024. The relationship between starch synthesis enzyme activity, gene expression, and amylopectin fine structure in waxy maize Cereal Res Commun. :doi: 10.1007/s42976-024-00509-3.     Reference: May 8th, 2024
Gene Product: June 6th, 2011
Variation: July 25th, 2022
todaybt2 brittle endosperm2:
4.05
   Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: November 4th, 2014
Variation: May 8th, 2023
todaydu1 dull endosperm1:
10.03
GRMZM2G141399
Zhang, H-Y et al. 2024. The relationship between starch synthesis enzyme activity, gene expression, and amylopectin fine structure in waxy maize Cereal Res Commun. :doi: 10.1007/s42976-024-00509-3.     Reference: May 8th, 2024
Gene Product: October 14th, 2016
Variation: June 29th, 2015
Gene Model: February 28th, 2012
todayfl2 floury2:
4.03
GRMZM2G397687
Niels Johan Christensen 2024. Conformations of a highly expressed Z19 α-zein studied with AlphaFold2 and MD simulations. PLoS One. 19:e0293786.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Variation: October 17th, 2014
Gene Model: December 19th, 2011
todayglu1 beta glucosidase1:
10.03
   Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: June 26th, 2019
Variation: January 9th, 2010
todaygpc3 glyceraldehyde-3-phosphate dehydrogenase3:
4.05 - 4.04
   Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Variation: June 1st, 2014
todayhex2 hexokinase2:
6.04 - 6.05
GRMZM2G432801
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 15th, 2013
Variation: February 15th, 2010
Gene Model: September 15th, 2013
todaymdh3 malate dehydrogenase3:
3.08
GRMZM2G466833
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: September 30th, 2015
todaypdk2 pyruvate, orthophosphate dikinase2:
8.04
GRMZM2G097457
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: July 28th, 2014
Variation: December 19th, 2017
Gene Model: November 21st, 2012
todaypgm1 phosphoglucomutase1:
1.09 - 1.10
GRMZM2G023289
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: November 28th, 2011
todaypgm2 phosphoglucomutase2:
5.01
GRMZM2G109383
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: November 28th, 2011
todaysu1 sugary1:
4.05
   Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: April 21st, 2016
Variation: June 6th, 2016
todaysu2 sugary2:
6.04 - 6.05
   Zhang, H-Y et al. 2024. The relationship between starch synthesis enzyme activity, gene expression, and amylopectin fine structure in waxy maize Cereal Res Commun. :doi: 10.1007/s42976-024-00509-3.     Reference: May 8th, 2024
Gene Product: October 14th, 2016
Variation: October 7th, 2010
todaytpi3 triose phosphate isomerase3:
8.02
GRMZM2G018177
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Variation: January 15th, 2015
Gene Model: January 15th, 2015
todaywx1 waxy1:
9.03
   Zhang, H-Y et al. 2024. The relationship between starch synthesis enzyme activity, gene expression, and amylopectin fine structure in waxy maize Cereal Res Commun. :doi: 10.1007/s42976-024-00509-3.     Reference: May 8th, 2024
Gene Product: June 4th, 2008
Variation: September 9th, 2023
todayzpl2a zein polypeptidesL2a:
4.08
GRMZM2G404459
Niels Johan Christensen 2024. Conformations of a highly expressed Z19 α-zein studied with AlphaFold2 and MD simulations. PLoS One. 19:e0293786.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Variation: January 14th, 2015
Gene Model: January 14th, 2015
todayfdh1 formaldehyde dehydrogenase homolog1:
5.08
GRMZM5G824600
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: November 15th, 2005
Variation: May 27th, 2014
Gene Model: July 27th, 2016
todaygpc4 glyceraldehyde-3-phosphate dehydrogenase4:
5.05
GRMZM2G176307
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Variation: December 13th, 2012
Gene Model: August 12th, 2014
todaypgk1 phosphoglycerate kinase1:
6.06
GRMZM2G089136
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: November 24th, 2020
Gene Model: August 29th, 2018
todaypgk2 phosphoglycerate kinase2:
8.05
GRMZM2G083016
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: November 24th, 2020
Gene Model: November 24th, 2020
todayzpu1 pullulanase-type starch debranching enzyme1:
2.05
GRMZM2G158043
Zhang, H-Y et al. 2024. The relationship between starch synthesis enzyme activity, gene expression, and amylopectin fine structure in waxy maize Cereal Res Commun. :doi: 10.1007/s42976-024-00509-3.     Reference: May 8th, 2024
Gene Product: October 25th, 2011
Variation: June 29th, 2015
Gene Model: November 20th, 2014
todaydla1 dihydrolipoamide S-acetyltransferase1:
5.04
GRMZM2G015132
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Gene Model: May 20th, 2015
todayald1 aldolase1:
8.06
GRMZM2G057823
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Variation: September 16th, 2013
Gene Model: September 15th, 2013
todaysps1 sucrose phosphate synthase1:
8.06
   Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Variation: January 15th, 2015
todaypdk1 pyruvate, orthophosphate dikinase1:
6.05
GRMZM2G306345
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: July 28th, 2014
Variation: April 18th, 2018
Gene Model: November 21st, 2012
todaypdc1 pyruvate decarboxylase1:
8.04
AC197705.4_FG001
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Variation: April 18th, 2005
Gene Model: June 7th, 2012
todaypdh1 pyruvate dehydrogenase1:
4.08
GRMZM2G361693
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: February 14th, 2008
Variation: April 10th, 2015
Gene Model: April 10th, 2015
todaybzr5 BZR-transcription factor 5:
 
   Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.   AT5G45300 (TAIR) Reference: May 8th, 2024
Gene Product: May 4th, 2022
todayzim10 ZIM-transcription factor 10:
 
   Shiyong Zhou et al. 2024. Jasmonic Acid Mediates Maize (Zea mays L.) Roots Response to Soil Nitrogen Heterogeneity J Plant Biol. :doi: 10.1007/s12374-024-09428-6.     Reference: May 8th, 2024
Gene Product: February 24th, 2021
todayzim3 ZIM-transcription factor 3:
 
   Shiyong Zhou et al. 2024. Jasmonic Acid Mediates Maize (Zea mays L.) Roots Response to Soil Nitrogen Heterogeneity J Plant Biol. :doi: 10.1007/s12374-024-09428-6.     Reference: May 8th, 2024
Gene Product: February 24th, 2021
todayexg1 exoglucanase1:
1.10
GRMZM2G147687
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Variation: August 3rd, 2011
Gene Model: November 20th, 2014
todaypho1 starch phosphorylase1:
1.10
GRMZM2G074158
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: March 26th, 2015
Gene Model: March 26th, 2015
todayumc1794  :
9.06
GRMZM2G031447
Shiyong Zhou et al. 2024. Jasmonic Acid Mediates Maize (Zea mays L.) Roots Response to Soil Nitrogen Heterogeneity J Plant Biol. :doi: 10.1007/s12374-024-09428-6.     Reference: May 8th, 2024
Variation: September 1st, 2003
Gene Model: June 26th, 2020
todaysbe1 starch branching enzyme1:
5.03
   Zhang, H-Y et al. 2024. The relationship between starch synthesis enzyme activity, gene expression, and amylopectin fine structure in waxy maize Cereal Res Commun. :doi: 10.1007/s42976-024-00509-3.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Variation: January 5th, 2018
todaycts3 citrate synthase3:
4.09
GRMZM2G063909
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: July 5th, 2019
Variation: September 1st, 2003
Gene Model: January 3rd, 2022
todaytrpp11 trehalose-6-phosphate phosphatase11:
9.01
GRMZM2G080354
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: October 3rd, 2020
Variation: September 1st, 2003
Gene Model: March 2nd, 2018
todaysus1 sucrose synthase1:
9.04
GRMZM2G152908
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: October 25th, 2006
Variation: February 1st, 2020
Gene Model: August 12th, 2014
todayugp1 UDP-glucose pyrophosphorylase1:
2.07
   Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Variation: February 24th, 2015
todaypck1 phosphoenolpyruvate carboxykinase1:
1.03
GRMZM2G001696
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: August 7th, 2014
Variation: September 25th, 2014
Gene Model: July 18th, 2014
todayde30 defective endosperm B30:
7.01 - 7.02
AF546188.1_FG007
Niels Johan Christensen 2024. Conformations of a highly expressed Z19 α-zein studied with AlphaFold2 and MD simulations. PLoS One. 19:e0293786.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Variation: September 15th, 2014
Gene Model: September 14th, 2014
todaypgd1 6-phosphogluconate dehydrogenase1:
6.01
GRMZM2G127798
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: December 16th, 2020
Variation: September 1st, 2003
Gene Model: July 28th, 2016
todayamyb5 beta amylase5:
7.03
   Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: February 26th, 2021
Variation: July 14th, 2012
todayAY109534  :
4.08
   Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Variation: September 25th, 2007
todaytrps7 trehalose-6-phosphate synthase7:
3.07
GRMZM2G123277
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: October 3rd, 2020
Variation: September 25th, 2007
Gene Model: August 20th, 2021
todaymdh13 malate dehydrogenase13:
3.04
GRMZM2G077415
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: June 4th, 2020
Gene Model: April 2nd, 2020
todayaz19D1 alpha zein 19kDa D1:
1.05
AF546187.1_FG001
Niels Johan Christensen 2024. Conformations of a highly expressed Z19 α-zein studied with AlphaFold2 and MD simulations. PLoS One. 19:e0293786.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Gene Model: November 21st, 2014
todayaz19D2 alpha zein 19kDa D2:
1.05
AF546187.1_FG007
Niels Johan Christensen 2024. Conformations of a highly expressed Z19 α-zein studied with AlphaFold2 and MD simulations. PLoS One. 19:e0293786.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Gene Model: November 21st, 2014
todayaz22z3 22kD alpha zein3:
4.01
GRMZM2G044625
Niels Johan Christensen 2024. Conformations of a highly expressed Z19 α-zein studied with AlphaFold2 and MD simulations. PLoS One. 19:e0293786.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Variation: May 31st, 2010
Gene Model: November 21st, 2014
todayaz22z4 22kD alpha zein4:
4.01
GRMZM2G346897
Niels Johan Christensen 2024. Conformations of a highly expressed Z19 α-zein studied with AlphaFold2 and MD simulations. PLoS One. 19:e0293786.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Variation: May 31st, 2010
Gene Model: November 21st, 2014
todayaz22z5 22kD alpha zein5:
4.01
GRMZM2G088365
Niels Johan Christensen 2024. Conformations of a highly expressed Z19 α-zein studied with AlphaFold2 and MD simulations. PLoS One. 19:e0293786.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Variation: May 31st, 2010
Gene Model: November 21st, 2014
todaysu4 sugary4:
6.05
GRMZM2G090905
Zhang, H-Y et al. 2024. The relationship between starch synthesis enzyme activity, gene expression, and amylopectin fine structure in waxy maize Cereal Res Commun. :doi: 10.1007/s42976-024-00509-3.     Reference: May 8th, 2024
Gene Product: October 25th, 2011
Variation: June 3rd, 2011
Gene Model: October 24th, 2011
todaygla3 beta-glucanase3:
5.01
GRMZM2G473711
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Variation: May 9th, 2009
Gene Model: January 5th, 2016
todaytrps1 trehalose-6-phosphate synthase1:
 
GRMZM2G068943
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: October 3rd, 2020
Gene Model: May 28th, 2012
todayhex5 hexokinase5:
 
GRMZM5G856653
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 15th, 2013
Gene Model: September 15th, 2013
todayhex9 hexokinase9:
 
GRMZM2G467069
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 15th, 2013
Gene Model: September 15th, 2013
todaytrpp2 trehalose-6-phosphate phosphatase2:
 
GRMZM2G140078
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: October 3rd, 2020
Gene Model: September 15th, 2013
todaytrpp8 trehalose-6-phosphate phosphatase8:
 
GRMZM2G174396
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: October 3rd, 2020
Gene Model: September 15th, 2013
todaytrps9 trehalose-6-phosphate synthase9:
 
GRMZM2G366659
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: October 3rd, 2020
Gene Model: September 15th, 2013
todaytrps10 trehalose-6-phosphate synthase10:
 
GRMZM2G312521
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: October 3rd, 2020
Variation: March 18th, 2021
Gene Model: September 15th, 2013
todaytrps11 trehalose-6-phosphate synthase11:
 
GRMZM2G122231
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: October 3rd, 2020
Gene Model: September 15th, 2013
todaytrps12 trehalose-6-phosphate synthase12:
 
GRMZM2G001304
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: October 3rd, 2020
Gene Model: September 15th, 2013
todayzp2 zein protein2:
 
AF546188.1_FG005
Niels Johan Christensen 2024. Conformations of a highly expressed Z19 α-zein studied with AlphaFold2 and MD simulations. PLoS One. 19:e0293786.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Gene Model: August 1st, 2016
todayprh5 protein phosphatase homolog5:
 
GRMZM2G010855
Shiyong Zhou et al. 2024. Jasmonic Acid Mediates Maize (Zea mays L.) Roots Response to Soil Nitrogen Heterogeneity J Plant Biol. :doi: 10.1007/s12374-024-09428-6.     Reference: May 8th, 2024
Gene Product: October 25th, 2021
Gene Model: October 18th, 2016
todayimd4 isopropylmalate dehydrogenase4:
 
GRMZM2G120857
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Gene Model: July 27th, 2017
todaytrpp14 trehalose-6-phosphate phosphatase14:
 
   Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: October 3rd, 2020
todayz1A-3 alpha zein 19kDa A-3:
 
GRMZM2G059620
Niels Johan Christensen 2024. Conformations of a highly expressed Z19 α-zein studied with AlphaFold2 and MD simulations. PLoS One. 19:e0293786.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Gene Model: July 3rd, 2019
todayaldh27 aldehyde dehydrogenase27:
 
GRMZM2G155502
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: January 5th, 2024
Gene Model: October 2nd, 2019
todayaldh13 aldehyde dehydrogenase13:
 
GRMZM2G118800
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: January 5th, 2024
Gene Model: October 2nd, 2019
todayscoal1 succinyl-CoA ligase1:
 
GRMZM2G064695
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: December 30th, 2019
Gene Model: December 30th, 2019
todayhak17 potassium high-affinity transporter17:
 
GRMZM2G088964
Limin Wang et al. 2024. ZmHAK17 encodes a Na+-selective transporter that promotes maize seed germination under salt conditions New Crops. :doi: 10.1016/j.ncrops.2024.100024.     Reference: May 8th, 2024
Gene Product: March 12th, 2020
Gene Model: March 12th, 2020
todaysbe4 starch branching enzyme4:
 
GRMZM2G073054
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: June 6th, 2011
Variation: April 29th, 2021
Gene Model: March 20th, 2020
todayZm00001d033937  :
 
   Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: June 4th, 2008
todayogdh1 2-oxoglutarate dehydrogenase1:
 
GRMZM2G142863
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: March 25th, 2020
Gene Model: March 25th, 2020
todayamya2 alpha amylase2:
 
GRMZM2G070172
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Gene Model: July 8th, 2020
todaycel13 cellulase13:
5.08
GRMZM2G538064
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: March 20th, 2023
Gene Model: May 25th, 2020
todaypgk5 phosphoglycerate kinase5:
 
GRMZM2G003724
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: November 24th, 2020
Gene Model: November 24th, 2020
todayidh3 isocitrate dehydrogenase3:
 
GRMZM2G025366
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: October 2nd, 2023
Gene Model: February 16th, 2021
todaymdh7 malate dehydrogenase7:
 
GRMZM2G068455
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Gene Model: March 2nd, 2021
todaygid4 gibberellin-insensitive dwarf protein homolog4:
 
GRMZM2G440543
Shiyong Zhou et al. 2024. Jasmonic Acid Mediates Maize (Zea mays L.) Roots Response to Soil Nitrogen Heterogeneity J Plant Biol. :doi: 10.1007/s12374-024-09428-6.     Reference: May 8th, 2024
Gene Product: April 27th, 2022
Gene Model: June 2nd, 2021
todaysaur45 small auxin up RNA45:
 
GRMZM2G471304
Shiyong Zhou et al. 2024. Jasmonic Acid Mediates Maize (Zea mays L.) Roots Response to Soil Nitrogen Heterogeneity J Plant Biol. :doi: 10.1007/s12374-024-09428-6.     Reference: May 8th, 2024
Gene Product: November 26th, 2021
Gene Model: November 26th, 2021
todayaldh17 aldehyde dehydrogenase17:
5.05
GRMZM2G169458
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: January 5th, 2024
Variation: May 26th, 2023
Gene Model: October 2nd, 2019
todaysudh13 succinate dehydrogenase13:
 
GRMZM2G039542
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: October 25th, 2016
Gene Model: March 21st, 2022
todaypco110217  :
5.06
   Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: August 12th, 2016
todayaldr2 aldose reductase2:
9.07
GRMZM2G059306
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 28th, 2020
Gene Model: January 1st, 2020
todayss1 starch synthase I:
9.02
   Zhang, H-Y et al. 2024. The relationship between starch synthesis enzyme activity, gene expression, and amylopectin fine structure in waxy maize Cereal Res Commun. :doi: 10.1007/s42976-024-00509-3.     Reference: May 8th, 2024
Gene Product: October 14th, 2016
Variation: October 7th, 2010
todaypdh2 pyruvate dehydrogenase2:
1.06
GRMZM2G043198
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: February 14th, 2008
Variation: February 25th, 2013
Gene Model: April 10th, 2015
todayIDP1981  :
7.04
GRMZM2G072054
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Variation: March 31st, 2005
Gene Model: February 5th, 2019
todayaco2 aconitase2:
10.04
GRMZM5G858454
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: September 1st, 2003
Variation: September 3rd, 2013
Gene Model: March 29th, 2015
todayamyb4 beta amylase4:
3.00
GRMZM2G175218
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: February 26th, 2021
Variation: February 27th, 2015
Gene Model: February 28th, 2015
todaypho2 starch phoshorylase2:
3.06
GRMZM2G085577
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: March 26th, 2015
Gene Model: March 26th, 2015
todaypco139502b  :
3.08
GRMZM2G152686
Zhao, YQ et al. 2024. Integrated analysis of transcriptomic and metabolomic data reveals how slurry ice treatment affects sugar metabolism in sweet corn (Zea mays L. var saccharata) during cold storage Food Front. :doi: 10.1002/fft2.410.     Reference: May 8th, 2024
Gene Product: April 8th, 2011
Variation: April 17th, 2008
Gene Model: February 25th, 2019
yesterdaya1 anthocyaninless1:
3.09
   Zhongtian Zheng et al. 2024. Integrative transcriptome analysis uncovers common components containing CPS2 regulated by maize lncRNA GARR2 in gibberellin response. Planta. 259:146.     Reference: May 7th, 2024
Gene Product: April 11th, 2013
Variation: August 25th, 2010
yesterdayuck1 UMP/CMP kinase1:
6.01
GRMZM2G141009
Zhongtian Zheng et al. 2024. Integrative transcriptome analysis uncovers common components containing CPS2 regulated by maize lncRNA GARR2 in gibberellin response. Planta. 259:146.     Reference: May 7th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: July 22nd, 2015
yesterdayd3 dwarf plant3:
9.03
GRMZM2G093195
Zhongtian Zheng et al. 2024. Integrative transcriptome analysis uncovers common components containing CPS2 regulated by maize lncRNA GARR2 in gibberellin response. Planta. 259:146.     Reference: May 7th, 2024
Gene Product: August 15th, 2012
Variation: June 5th, 2023
Gene Model: November 8th, 2012
yesterdayd9 dwarf plant9:
5.01
   Li, W; Chen, YD; Wang, YL; Zhao, J; Wang, YJ. 2022. Plant J. 0:doi: 10.1111/tpj.15748     Reference: May 7th, 2024
Gene Product: February 12th, 2007
Variation: January 30th, 2014
yesterdaygln2 glutamine synthetase2:
1.09
   Li, W; Chen, YD; Wang, YL; Zhao, J; Wang, YJ. 2022. Plant J. 0:doi: 10.1111/tpj.15748     Reference: May 7th, 2024
Gene Product: September 1st, 2003
Variation: March 24th, 2021
yesterdaycbl10 calcineurin B-like10:
3.09
GRMZM2G116584
Zhongtian Zheng et al. 2024. Integrative transcriptome analysis uncovers common components containing CPS2 regulated by maize lncRNA GARR2 in gibberellin response. Planta. 259:146.     Reference: May 7th, 2024
Gene Product: October 19th, 2016
Gene Model: April 3rd, 2018
yesterdaykcs13 3-ketoacyl-CoA synthase13:
1.02
GRMZM2G445602
Li, W; Chen, YD; Wang, YL; Zhao, J; Wang, YJ. 2022. Plant J. 0:doi: 10.1111/tpj.15748     Reference: May 7th, 2024
Gene Product: November 1st, 2018
Gene Model: September 2nd, 2018
yesterdayAY103770  :
9.03
GRMZM2G033555
Zhongtian Zheng et al. 2024. Integrative transcriptome analysis uncovers common components containing CPS2 regulated by maize lncRNA GARR2 in gibberellin response. Planta. 259:146.     Reference: May 7th, 2024
Variation: January 2nd, 2022
Gene Model: February 27th, 2018
yesterdayprp7 pathogenesis-related protein7:
1.03
GRMZM2G112524
Li, W; Chen, YD; Wang, YL; Zhao, J; Wang, YJ. 2022. Plant J. 0:doi: 10.1111/tpj.15748     Reference: May 7th, 2024
Gene Product: December 12th, 2022
Gene Model: September 30th, 2017
yesterdayfum1 fumarase1:
1.04
GRMZM2G010823
Li, W; Chen, YD; Wang, YL; Zhao, J; Wang, YJ. 2022. Plant J. 0:doi: 10.1111/tpj.15748     Reference: May 7th, 2024
Gene Product: June 2nd, 2021
Gene Model: April 14th, 2021
yesterdayggps2 geranylgeranyl pyrophosphate synthase2:
 
AC194970.5_FG001
Zhongtian Zheng et al. 2024. Integrative transcriptome analysis uncovers common components containing CPS2 regulated by maize lncRNA GARR2 in gibberellin response. Planta. 259:146.     Reference: May 7th, 2024
Gene Product: April 8th, 2013
Gene Model: April 8th, 2013
yesterdayggps3 geranylgeranyl pyrophosphate synthase3:
 
GRMZM2G102550
Zhongtian Zheng et al. 2024. Integrative transcriptome analysis uncovers common components containing CPS2 regulated by maize lncRNA GARR2 in gibberellin response. Planta. 259:146.     Reference: May 7th, 2024
Gene Product: April 8th, 2013
Gene Model: April 8th, 2013
yesterdayks4 kaurene synthase4:
 
AC214360.3_FG001
Zhongtian Zheng et al. 2024. Integrative transcriptome analysis uncovers common components containing CPS2 regulated by maize lncRNA GARR2 in gibberellin response. Planta. 259:146.     Reference: May 7th, 2024
Gene Product: August 16th, 2012
Gene Model: October 27th, 2014
yesterdayko2 kaurene oxidase2:
 
GRMZM2G161472
Zhongtian Zheng et al. 2024. Integrative transcriptome analysis uncovers common components containing CPS2 regulated by maize lncRNA GARR2 in gibberellin response. Planta. 259:146.     Reference: May 7th, 2024
Gene Product: October 27th, 2014
Gene Model: October 27th, 2014
yesterdayks6 kaurene synthase6:
 
GRMZM2G391312
Zhongtian Zheng et al. 2024. Integrative transcriptome analysis uncovers common components containing CPS2 regulated by maize lncRNA GARR2 in gibberellin response. Planta. 259:146.     Reference: May 7th, 2024
Gene Product: August 16th, 2012
Gene Model: December 2nd, 2015
yesterdaycyp27 cytochrome P-450 27:
 
GRMZM2G164074
Zhongtian Zheng et al. 2024. Integrative transcriptome analysis uncovers common components containing CPS2 regulated by maize lncRNA GARR2 in gibberellin response. Planta. 259:146.     Reference: May 7th, 2024
Gene Product: December 30th, 2022
Gene Model: March 25th, 2019
yesterdayupl12 ubiquitin-protein ligase12:
 
GRMZM2G331368
Li, W; Chen, YD; Wang, YL; Zhao, J; Wang, YJ. 2022. Plant J. 0:doi: 10.1111/tpj.15748     Reference: May 7th, 2024
Gene Product: November 26th, 2019
Gene Model: November 19th, 2019
yesterdaynope1 no perception1 :
 
GRMZM2G176737
Zhongtian Zheng et al. 2024. Integrative transcriptome analysis uncovers common components containing CPS2 regulated by maize lncRNA GARR2 in gibberellin response. Planta. 259:146.   LOC_Os04g01520 (MSU/TIGR) Reference: May 7th, 2024
Gene Product: September 7th, 2020
Variation: November 21st, 2020
Gene Model: September 7th, 2020
yesterdayfomt4 flavonoid O-methyltransferase 4:
 
GRMZM2G423331
Zhongtian Zheng et al. 2024. Integrative transcriptome analysis uncovers common components containing CPS2 regulated by maize lncRNA GARR2 in gibberellin response. Planta. 259:146.     Reference: May 7th, 2024
Gene Product: February 16th, 2011
Gene Model: November 1st, 2021
yesterdaycaat10 cationic amino acid transporter10:
 
GRMZM2G139920
Li, W; Chen, YD; Wang, YL; Zhao, J; Wang, YJ. 2022. Plant J. 0:doi: 10.1111/tpj.15748     Reference: May 7th, 2024
Gene Product: March 29th, 2024
Gene Model: April 4th, 2022
yesterdaygarr2 gibberellin responsive lncRNA2:
 
   Li, W; Chen, YD; Wang, YL; Zhao, J; Wang, YJ. 2022. Plant J. 0:doi: 10.1111/tpj.15748     Reference: May 7th, 2024
Variation: May 7th, 2024
yesterdaycpps2 copalyl diphosphate synthase2:
1.04
GRMZM2G044481
Zhongtian Zheng et al. 2024. Integrative transcriptome analysis uncovers common components containing CPS2 regulated by maize lncRNA GARR2 in gibberellin response. Planta. 259:146.     Reference: May 7th, 2024
Gene Product: August 16th, 2012
Variation: January 22nd, 2018
Gene Model: September 12th, 2011
2 days agoaaa2 adenosylmethionine aminotransferase2:
 
   ZN Shakhov et al. 2024. Features of GABA-transaminase Functioning in Zea mays L. Leaves Under Salinity J Stress Physiol Biochem. 20:34-40.     Reference: May 6th, 2024
Gene Product: May 6th, 2024
2 days agoglu5 beta-glucosidase5:
 
   Li, C et al. 2024. A novel semi-dominant allele of the transmembrane NAC transcription factor ZmNTL2 reduces the size of multiple maize organs Crop J. :doi: 10.1016/j.cj.2024.04.002.     Reference: May 6th, 2024
Gene Product: June 26th, 2019
2 days agoglu9 beta-glucosidase9:
 
   Li, C et al. 2024. A novel semi-dominant allele of the transmembrane NAC transcription factor ZmNTL2 reduces the size of multiple maize organs Crop J. :doi: 10.1016/j.cj.2024.04.002.     Reference: May 6th, 2024
Gene Product: June 26th, 2019
2 days agocyp50 cytochrome P450 50:
 
   Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: December 30th, 2022
2 days agoLOC103638382  :
 
   ZN Shakhov et al. 2024. Features of GABA-transaminase Functioning in Zea mays L. Leaves Under Salinity J Stress Physiol Biochem. 20:34-40.     Reference: May 6th, 2024
Gene Product: May 6th, 2024
2 days agoaasr1 abscisic acid stress ripening1:
10.02
GRMZM2G136910
Yang, Y et al. 2024. ZmASR1 negatively regulates drought stress tolerance in maize Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108684.     Reference: May 6th, 2024
Gene Product: January 2nd, 2019
Variation: December 30th, 2011
Gene Model: November 1st, 2011
2 days agozep1 zeaxanthin epoxidase1:
2.04
GRMZM2G127139
Prakash, NR et al. 2024. Unique genetic architecture of prolificacy in 'Sikkim Primitive' maize unraveled through whole-genome resequencing-based DNA polymorphism. Plant Cell Rep. 43:134.     Reference: May 6th, 2024
Gene Product: December 10th, 2011
Variation: August 29th, 2011
Gene Model: April 8th, 2013
2 days agoan1 anther ear1:
1.08
GRMZM2G081554
Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: August 16th, 2012
Variation: May 13th, 2020
Gene Model: November 7th, 2011
2 days agoc1 colored aleurone1:
9.01
   Dermail, A et al. 2024. Haploid identification in maize Frontiers in Plant Science. 15:1378421.     Reference: May 6th, 2024
Gene Product: June 16th, 2015
Variation: February 9th, 2024
2 days agod8 dwarf plant8:
1.09
GRMZM2G144744
Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: February 12th, 2007
Variation: August 29th, 2007
Gene Model: May 11th, 2011
2 days agodhr2 dhurrinase2:
3.05
GRMZM2G076946
Li, C et al. 2024. A novel semi-dominant allele of the transmembrane NAC transcription factor ZmNTL2 reduces the size of multiple maize organs Crop J. :doi: 10.1016/j.cj.2024.04.002.     Reference: May 6th, 2024
Gene Product: June 26th, 2019
Variation: September 3rd, 2008
Gene Model: July 27th, 2016
2 days agoig1 indeterminate gametophyte1:
3.06 - 3.07
   Dermail, A et al. 2024. Haploid identification in maize Frontiers in Plant Science. 15:1378421.     Reference: May 6th, 2024
Gene Product: July 28th, 2023
Variation: October 19th, 2010
2 days agolg2 liguleless2:
3.06
   Wang, XK, et al. 2022. Plant Physiol. 0:doi: 10.1093/plphys/kiac308     Reference: May 6th, 2024
Gene Product: August 22nd, 2014
Variation: January 22nd, 2024
2 days agolg3 liguleless3:
3.04
   Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: August 22nd, 2014
Variation: March 16th, 2015
2 days agona1 nana plant1:
3.06 - 3.08
GRMZM2G449033
Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: July 24th, 2012
Variation: December 22nd, 2016
Gene Model: December 20th, 2011
2 days agopl1 purple plant1:
6.04
   Dermail, A et al. 2024. Haploid identification in maize Frontiers in Plant Science. 15:1378421.     Reference: May 6th, 2024
Gene Product: June 16th, 2015
Variation: March 28th, 2013
2 days agopro1 proline responding1:
8.04
GRMZM2G375504
Ren, ZZ et al. 2024. Regulatory mechanisms used by ZmMYB39 to enhance drought tolerance in maize (Zea mays) seedlings. Plant Physiol Biochem. 211:108696.     Reference: May 6th, 2024
Gene Product: March 19th, 2015
Variation: June 18th, 2021
Gene Model: June 22nd, 2014
2 days agor1 colored1:
10.06
   Dermail, A et al. 2024. Haploid identification in maize Frontiers in Plant Science. 15:1378421.     Reference: May 6th, 2024
Gene Product: October 13th, 2010
Variation: February 9th, 2024
2 days agora3 ramosa3:
7.06
   Prakash, NR et al. 2024. Unique genetic architecture of prolificacy in 'Sikkim Primitive' maize unraveled through whole-genome resequencing-based DNA polymorphism. Plant Cell Rep. 43:134.     Reference: May 6th, 2024
Gene Product: October 3rd, 2020
Variation: December 3rd, 2010
2 days agors1 rough sheath1:
7.00
GRMZM2G028041
Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: September 30th, 2015
Variation: November 18th, 2013
Gene Model: September 30th, 2015
2 days agomyb39 myb transcription factor39:
 
GRMZM2G127857
Ren, ZZ et al. 2024. Regulatory mechanisms used by ZmMYB39 to enhance drought tolerance in maize (Zea mays) seedlings. Plant Physiol Biochem. 211:108696.     Reference: May 6th, 2024
Gene Product: February 16th, 2011
Variation: May 12th, 2011
Gene Model: July 28th, 2016
2 days agoarftf18 ARF-transcription factor 18:
5.03
GRMZM2G035405
Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: January 29th, 2022
Variation: September 1st, 2003
Gene Model: June 23rd, 2018
2 days agosod2 superoxide dismutase2:
7.05
   Ren, ZZ et al. 2024. Regulatory mechanisms used by ZmMYB39 to enhance drought tolerance in maize (Zea mays) seedlings. Plant Physiol Biochem. 211:108696.     Reference: May 6th, 2024
Gene Product: October 4th, 2021
Variation: August 2nd, 2013
2 days agobzr1 BZR-transcription factor 1:
 
   Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: May 4th, 2022
Variation: June 27th, 2022
2 days agobes1 brassinosteroid insensitive EMS-suppressor homolog1:
 
   Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: May 4th, 2022
Variation: June 27th, 2022
2 days agogras42 GRAS-transcription factor 42:
 
   Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.   AT1G63100 (TAIR) Reference: May 6th, 2024
Variation: May 6th, 2024
2 days agonactf49 NAC-transcription factor 49:
 
   Ren, ZZ et al. 2024. Regulatory mechanisms used by ZmMYB39 to enhance drought tolerance in maize (Zea mays) seedlings. Plant Physiol Biochem. 211:108696.     Reference: May 6th, 2024
Gene Product: July 8th, 2019
Variation: March 3rd, 2017
2 days agowrky40 WRKY-transcription factor 40:
 
   Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Variation: January 22nd, 2024
2 days agoocl4 outer cell layer4:
1.05 - 1.06
   Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: September 1st, 2003
Variation: December 6th, 2019
2 days agockx10 cytokinin oxidase10:
1.07
GRMZM2G348452
Li, C et al. 2024. A novel semi-dominant allele of the transmembrane NAC transcription factor ZmNTL2 reduces the size of multiple maize organs Crop J. :doi: 10.1016/j.cj.2024.04.002.     Reference: May 6th, 2024
Gene Product: April 4th, 2014
Variation: September 1st, 2003
Gene Model: September 18th, 2018
2 days agoereb22 AP2-EREBP-transcription factor 22:
8.03
GRMZM2G006745
Ren, ZZ et al. 2024. Regulatory mechanisms used by ZmMYB39 to enhance drought tolerance in maize (Zea mays) seedlings. Plant Physiol Biochem. 211:108696.     Reference: May 6th, 2024
Variation: July 17th, 2020
Gene Model: September 18th, 2018
2 days agofnr1 ferredoxin NADP reductase1:
1.11
   Ren, ZZ et al. 2024. Regulatory mechanisms used by ZmMYB39 to enhance drought tolerance in maize (Zea mays) seedlings. Plant Physiol Biochem. 211:108696.     Reference: May 6th, 2024
Gene Product: May 11th, 2021
Variation: December 7th, 2012
2 days agoaaa1 adenosylmethionine aminotransferase1:
2.02
GRMZM5G817886
ZN Shakhov et al. 2024. Features of GABA-transaminase Functioning in Zea mays L. Leaves Under Salinity J Stress Physiol Biochem. 20:34-40.     Reference: May 6th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: December 28th, 2016
2 days agopin10 PIN-formed protein10:
 
GRMZM2G126260
Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: April 3rd, 2024
Gene Model: January 24th, 2013
2 days agodwil1 dwarf & irregular leaf1:
 
GRMZM2G013657
Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: July 5th, 2019
Variation: March 18th, 2013
Gene Model: March 12th, 2013
2 days agoga2ox3 gibberellin 2-oxidase3:
 
GRMZM2G022679
Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: October 27th, 2014
Gene Model: October 27th, 2014
2 days agoga2ox9 gibberellin 2-oxidase9:
 
GRMZM2G152354
Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: October 27th, 2014
Gene Model: October 27th, 2014
2 days agoga2ox13 gibberellin 2-oxidase13:
 
GRMZM2G031432
Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: October 27th, 2014
Gene Model: October 30th, 2014
2 days agoyuc6 Yucca6:
 
GRMZM2G019515
Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: June 18th, 2018
Variation: July 9th, 2021
Gene Model: June 17th, 2016
2 days agobx13 benzoxazinone synthesis13:
 
AC148152.3_FG005
Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: June 20th, 2016
Variation: June 20th, 2016
Gene Model: June 20th, 2016
2 days agopld3 phospholipase D3:
 
GRMZM2G043340
Dermail, A et al. 2024. Haploid identification in maize Frontiers in Plant Science. 15:1378421.     Reference: May 6th, 2024
Gene Product: August 9th, 2016
Variation: December 9th, 2021
Gene Model: July 4th, 2019
2 days agomatl1 matrilineal1:
 
GRMZM2G471240
Dermail, A et al. 2024. Haploid identification in maize Frontiers in Plant Science. 15:1378421.     Reference: May 6th, 2024
Gene Product: June 12th, 2020
Variation: February 10th, 2017
Gene Model: January 25th, 2017
2 days agoburp2 BURP domain-containing protein-RD22-like2:
 
GRMZM5G800586
Ren, ZZ et al. 2024. Regulatory mechanisms used by ZmMYB39 to enhance drought tolerance in maize (Zea mays) seedlings. Plant Physiol Biochem. 211:108696.     Reference: May 6th, 2024
Gene Product: August 18th, 2017
Variation: August 18th, 2017
Gene Model: August 18th, 2017
2 days agogid2 gibberellin-insensitive dwarf protein homolog2:
 
GRMZM2G016605
Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: October 6th, 2021
Gene Model: May 29th, 2019
2 days agodmp1 DUF679 domain membrane protein1:
 
GRMZM2G465053
Dermail, A et al. 2024. Haploid identification in maize Frontiers in Plant Science. 15:1378421.   AT5G39650 (TAIR) Reference: May 6th, 2024
Gene Product: June 10th, 2019
Variation: June 10th, 2019
Gene Model: June 10th, 2019
2 days agobak3 brassinosteroid insensitive1-associated receptor kinase like3:
 
GRMZM2G043350
Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.   AT4G18710 (TAIR) Reference: May 6th, 2024
Gene Product: February 22nd, 2022
Gene Model: June 21st, 2019
2 days agotmm1 too many mouths-like1:
 
GRMZM2G011401
Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.   AT1G80080 (TAIR) Reference: May 6th, 2024
Gene Product: February 1st, 2023
Gene Model: July 10th, 2019
2 days agoaas6 auxin amido synthetase6:
 
GRMZM2G061515
Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: October 21st, 2019
Gene Model: October 21st, 2019
2 days agoga2ox14 gibberellin 2-oxidase14:
 
GRMZM2G320167
Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: October 27th, 2014
Gene Model: May 8th, 2021
2 days agogid5 gibberellin-insensitive dwarf protein homolog5:
 
GRMZM2G459166
Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: April 27th, 2022
Gene Model: October 6th, 2021
2 days agoidd14 indeterminate domain14:
 
GRMZM2G141031
Prakash, NR et al. 2024. Unique genetic architecture of prolificacy in 'Sikkim Primitive' maize unraveled through whole-genome resequencing-based DNA polymorphism. Plant Cell Rep. 43:134.   AT1G68130 (TAIR) Reference: May 6th, 2024
Gene Product: November 14th, 2022
Gene Model: August 24th, 2022
2 days agoaas10 auxin amido synthetase10:
8.03
GRMZM2G001421
Li, C et al. 2024. A novel semi-dominant allele of the transmembrane NAC transcription factor ZmNTL2 reduces the size of multiple maize organs Crop J. :doi: 10.1016/j.cj.2024.04.002.     Reference: May 6th, 2024
Gene Product: October 21st, 2019
Gene Model: October 21st, 2019
2 days agoIDP3890  :
9.03
GRMZM2G006973
Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Variation: March 31st, 2005
Gene Model: July 14th, 2021
2 days agocyp11 cytochrome P450 11:
3.09
GRMZM2G129860
Kaur, A et al. 2024. A maize semidwarf mutant reveals a GRAS transcription factor involved in brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae147.     Reference: May 6th, 2024
Gene Product: September 26th, 2016
Variation: January 22nd, 2010
Gene Model: April 30th, 2013
5 days agoZm00001d014917  :
 
   Carolina Bellino et al. 2024. Molecular Evolution of RAMOSA1 (RA1) in Land Plants Biomolecules. 14:550.     Reference: May 3rd, 2024
Gene Product: November 14th, 2022
5 days agobm1 brown midrib1:
5.04
   Tyler Foster et al. 2024. Fine mapping of major QTL qshgd1 for spontaneous haploid genome doubling in maize (Zea mays L.). Theor Appl Genet. 137:117.     Reference: May 3rd, 2024
Gene Product: September 1st, 2003
Variation: November 17th, 2020
5 days agoga1 gametophyte factor1:
4.02 - 4.03
   Zhang, ZG et al. 2018. Nature communications p.3678     Reference: May 3rd, 2024
Variation: June 22nd, 2005
5 days agoga2 gametophyte factor2:
5.04
   Bapat, AR and Scott, MP 2024. Pectin methylesterase activities in reproductive tissues of maize plants with different haplotypes of the Ga1 and Ga2 cross incompatibility systems. Plant Reproduction. :doi: 10.1007/s00497-024-00502-0.     Reference: May 3rd, 2024
Variation: September 29th, 2016
5 days agora1 ramosa1:
7.02
   Carolina Bellino et al. 2024. Molecular Evolution of RAMOSA1 (RA1) in Land Plants Biomolecules. 14:550.     Reference: May 3rd, 2024
Gene Product: April 11th, 2007
Variation: August 20th, 2010
5 days agoumc1283  :
5.04
GRMZM2G094353
Tyler Foster et al. 2024. Fine mapping of major QTL qshgd1 for spontaneous haploid genome doubling in maize (Zea mays L.). Theor Appl Genet. 137:117.     Reference: May 3rd, 2024
Variation: September 1st, 2003
Gene Model: May 15th, 2020
5 days agotcb1 teosinte crossing barrier1:
4.04
   Bapat, AR and Scott, MP 2024. Pectin methylesterase activities in reproductive tissues of maize plants with different haplotypes of the Ga1 and Ga2 cross incompatibility systems. Plant Reproduction. :doi: 10.1007/s00497-024-00502-0.     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
Variation: May 24th, 2019
5 days agodof21 C2C2-Dof-transcription factor 21:
1.02
GRMZM2G162749
Carolina Bellino et al. 2024. Molecular Evolution of RAMOSA1 (RA1) in Land Plants Biomolecules. 14:550.     Reference: May 3rd, 2024
Variation: January 6th, 2017
Gene Model: January 6th, 2017
5 days agommp225  :
10.04
GRMZM2G137736
Carolina Bellino et al. 2024. Molecular Evolution of RAMOSA1 (RA1) in Land Plants Biomolecules. 14:550.     Reference: May 3rd, 2024
Gene Product: November 14th, 2022
Gene Model: December 10th, 2021
5 days agopme36 pectin methylesterase36:
2.03
GRMZM2G162333
Bapat, AR and Scott, MP 2024. Pectin methylesterase activities in reproductive tissues of maize plants with different haplotypes of the Ga1 and Ga2 cross incompatibility systems. Plant Reproduction. :doi: 10.1007/s00497-024-00502-0.     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
5 days agopme31 pectin methylesterase31:
3.09
GRMZM2G004927
Bapat, AR and Scott, MP 2024. Pectin methylesterase activities in reproductive tissues of maize plants with different haplotypes of the Ga1 and Ga2 cross incompatibility systems. Plant Reproduction. :doi: 10.1007/s00497-024-00502-0.     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
5 days agopme3 pectin methylesterase3:
 
   Bapat, AR and Scott, MP 2024. Pectin methylesterase activities in reproductive tissues of maize plants with different haplotypes of the Ga1 and Ga2 cross incompatibility systems. Plant Reproduction. :doi: 10.1007/s00497-024-00502-0.     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
5 days agoZm00001d048936  :
 
GRMZM2G119698
Zhang, ZG et al. 2018. Nature communications p.3678     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
Gene Model: September 10th, 2018
5 days agopme8 pectin methylesterase8:
 
GRMZM2G128549
Zhang, ZG et al. 2018. Nature communications p.3678     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
5 days agopme24 pectin methylesterase24:
 
GRMZM2G404767
Bapat, AR and Scott, MP 2024. Pectin methylesterase activities in reproductive tissues of maize plants with different haplotypes of the Ga1 and Ga2 cross incompatibility systems. Plant Reproduction. :doi: 10.1007/s00497-024-00502-0.     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
5 days agopme26 pectin methylesterase26:
 
GRMZM2G019411
Bapat, AR and Scott, MP 2024. Pectin methylesterase activities in reproductive tissues of maize plants with different haplotypes of the Ga1 and Ga2 cross incompatibility systems. Plant Reproduction. :doi: 10.1007/s00497-024-00502-0.     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
5 days agopme30 pectin methylesterase30:
 
GRMZM2G121278
Bapat, AR and Scott, MP 2024. Pectin methylesterase activities in reproductive tissues of maize plants with different haplotypes of the Ga1 and Ga2 cross incompatibility systems. Plant Reproduction. :doi: 10.1007/s00497-024-00502-0.     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
5 days agopme32 pectin methylesterase32:
 
GRMZM2G318299
Bapat, AR and Scott, MP 2024. Pectin methylesterase activities in reproductive tissues of maize plants with different haplotypes of the Ga1 and Ga2 cross incompatibility systems. Plant Reproduction. :doi: 10.1007/s00497-024-00502-0.     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
5 days agopme33 pectin methylesterase33:
 
GRMZM2G070913
Bapat, AR and Scott, MP 2024. Pectin methylesterase activities in reproductive tissues of maize plants with different haplotypes of the Ga1 and Ga2 cross incompatibility systems. Plant Reproduction. :doi: 10.1007/s00497-024-00502-0.     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
5 days agopme34 pectin methylesterase34:
 
GRMZM2G422631
Bapat, AR and Scott, MP 2024. Pectin methylesterase activities in reproductive tissues of maize plants with different haplotypes of the Ga1 and Ga2 cross incompatibility systems. Plant Reproduction. :doi: 10.1007/s00497-024-00502-0.     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
5 days agopme35 pectin methylesterase35:
 
GRMZM2G455564
Bapat, AR and Scott, MP 2024. Pectin methylesterase activities in reproductive tissues of maize plants with different haplotypes of the Ga1 and Ga2 cross incompatibility systems. Plant Reproduction. :doi: 10.1007/s00497-024-00502-0.     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
5 days agopme37 pectin methylesterase37:
 
GRMZM2G043943
Bapat, AR and Scott, MP 2024. Pectin methylesterase activities in reproductive tissues of maize plants with different haplotypes of the Ga1 and Ga2 cross incompatibility systems. Plant Reproduction. :doi: 10.1007/s00497-024-00502-0.     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
5 days agopme38 pectin methylesterase38:
 
GRMZM2G071339
Bapat, AR and Scott, MP 2024. Pectin methylesterase activities in reproductive tissues of maize plants with different haplotypes of the Ga1 and Ga2 cross incompatibility systems. Plant Reproduction. :doi: 10.1007/s00497-024-00502-0.     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
5 days agopme39 pectin methylesterase39:
 
GRMZM2G120779
Bapat, AR and Scott, MP 2024. Pectin methylesterase activities in reproductive tissues of maize plants with different haplotypes of the Ga1 and Ga2 cross incompatibility systems. Plant Reproduction. :doi: 10.1007/s00497-024-00502-0.     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
5 days agopme40 pectin methylesterase40:
 
GRMZM2G177940
Bapat, AR and Scott, MP 2024. Pectin methylesterase activities in reproductive tissues of maize plants with different haplotypes of the Ga1 and Ga2 cross incompatibility systems. Plant Reproduction. :doi: 10.1007/s00497-024-00502-0.     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
5 days agopme41 pectin methylesterase41:
 
GRMZM2G037411
Bapat, AR and Scott, MP 2024. Pectin methylesterase activities in reproductive tissues of maize plants with different haplotypes of the Ga1 and Ga2 cross incompatibility systems. Plant Reproduction. :doi: 10.1007/s00497-024-00502-0.     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
5 days agopme42 pectin methylesterase42:
 
GRMZM2G382557
Bapat, AR and Scott, MP 2024. Pectin methylesterase activities in reproductive tissues of maize plants with different haplotypes of the Ga1 and Ga2 cross incompatibility systems. Plant Reproduction. :doi: 10.1007/s00497-024-00502-0.     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
5 days agoZm00001d016245  :
 
GRMZM2G071511
Bapat, AR and Scott, MP 2024. Pectin methylesterase activities in reproductive tissues of maize plants with different haplotypes of the Ga1 and Ga2 cross incompatibility systems. Plant Reproduction. :doi: 10.1007/s00497-024-00502-0.     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
Gene Model: April 14th, 2022
5 days agoTRINITY_DN1207_c0_g1 (PG2)  :
 
GRMZM2G410783
Bapat, AR and Scott, MP 2024. Pectin methylesterase activities in reproductive tissues of maize plants with different haplotypes of the Ga1 and Ga2 cross incompatibility systems. Plant Reproduction. :doi: 10.1007/s00497-024-00502-0.     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
Gene Model: April 14th, 2022
5 days agopme43 pectin methylesterase43:
4.00
GRMZM2G431856
Bapat, AR and Scott, MP 2024. Pectin methylesterase activities in reproductive tissues of maize plants with different haplotypes of the Ga1 and Ga2 cross incompatibility systems. Plant Reproduction. :doi: 10.1007/s00497-024-00502-0.     Reference: May 3rd, 2024
Gene Product: September 10th, 2018
Variation: March 31st, 2005
Gene Model: December 28th, 2019
6 days agoms26 male sterile26:
1.02 - 1.02
   Albertsen, MC et al. 2006. Nucleotide sequences mediating plant male fertility and method of using same. Patent US7612251B2     Reference: May 2nd, 2024
Gene Product: September 30th, 2013
Variation: July 8th, 2020
6 days agoaasr2 abscisic acid stress ripening2:
2.05
GRMZM5G854138
Liang, YN et al. 2019. Int J Mol Sci 20:2278     Reference: May 2nd, 2024
Gene Product: December 1st, 2011
Variation: November 22nd, 2011
Gene Model: November 1st, 2011
6 days agoaasr6 abscisic acid stress ripening6:
5.04
GRMZM2G057841
Liang, YN et al. 2019. Int J Mol Sci 20:2278     Reference: May 2nd, 2024
Gene Product: January 2nd, 2019
Variation: November 12th, 2014
Gene Model: November 1st, 2011
6 days agoaasr9 abscisic acid stress ripening9:
3.04
GRMZM2G383699
Liang, YN et al. 2019. Int J Mol Sci 20:2278     Reference: May 2nd, 2024
Gene Product: January 2nd, 2019
Gene Model: November 1st, 2011
6 days agoamya1 alpha amylase1:
 
   MacGregor, AW et al. 1988. Cereal Chem 65:326-333     Reference: May 2nd, 2024
Gene Product: September 1st, 2003
Variation: May 12th, 2005
6 days agosod4 superoxide dismutase4:
1.04
   Xinran Gao et al. 2024. ZmmiR398b negatively regulates maize resistance to sugarcane mosaic virus infection by targeting ZmCSD2/4/9. Mol Plant Pathol. 25:e13462.     Reference: May 2nd, 2024
Gene Product: October 4th, 2021
Variation: April 20th, 2005
6 days agossu1 ribulose bisphosphate carboxylase small subunit1:
4.08
   Kathryn Eshenour et al. 2024. Transgenic Expression of Rubisco Accumulation Factor2 and Rubisco Subunits Increases Photosynthesis and Growth in Maize. J Exp Bot. :doi: 10.1093/jxb/erae186.     Reference: May 2nd, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
6 days agossu2 ribulose bisphosphate carboxylase small subunit2:
2.05
GRMZM2G113033
Wostrikoff, K et al. 2012. Ectopic expression of Rubisco subunits in maize mesophyll cells does not overcome barriers to cell type-specific accumulation. Plant Physiol. 160:419-32.     Reference: May 2nd, 2024
Gene Product: September 1st, 2003
Variation: October 14th, 2014
Gene Model: August 7th, 2014
6 days agobss1 bundle sheath strands specific1:
8.06
GRMZM2G168552
Liang, YN et al. 2019. Int J Mol Sci 20:2278     Reference: May 2nd, 2024
Gene Product: December 1st, 2011
Variation: November 1st, 2011
Gene Model: November 1st, 2011
6 days agoaasr3 abscisic acid stress ripening3:
2.04
GRMZM5G806182
Liang, YN et al. 2019. Int J Mol Sci 20:2278     Reference: May 2nd, 2024
Gene Product: December 1st, 2011
Gene Model: January 2nd, 2019
6 days agosod9 superoxide dismutase9:
9.04
   Xinran Gao et al. 2024. ZmmiR398b negatively regulates maize resistance to sugarcane mosaic virus infection by targeting ZmCSD2/4/9. Mol Plant Pathol. 25:e13462.     Reference: May 2nd, 2024
Gene Product: October 4th, 2021
Variation: January 21st, 2015
6 days agoamya3 alpha amylase3:
2.07
   MacGregor, AW et al. 1988. Cereal Chem 65:326-333     Reference: May 2nd, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
6 days agorbcL (cp) ribulose-1-5-bisphosphate carboxylase-large subunit:
 
   Kathryn Eshenour et al. 2024. Transgenic Expression of Rubisco Accumulation Factor2 and Rubisco Subunits Increases Photosynthesis and Growth in Maize. J Exp Bot. :doi: 10.1093/jxb/erae186.     Reference: May 2nd, 2024
Gene Product: September 1st, 2003
6 days agoaasr5 abscisic acid stress ripening5:
10.04
GRMZM2G052100
Liang, YN et al. 2019. Int J Mol Sci 20:2278     Reference: May 2nd, 2024
Gene Product: November 4th, 2011
Variation: April 14th, 2007
Gene Model: November 1st, 2011
6 days agoraf1 Rubisco Assembly Factor 1:
 
GRMZM2G457621
Kathryn Eshenour et al. 2024. Transgenic Expression of Rubisco Accumulation Factor2 and Rubisco Subunits Increases Photosynthesis and Growth in Maize. J Exp Bot. :doi: 10.1093/jxb/erae186.     Reference: May 2nd, 2024
Gene Product: October 4th, 2014
Variation: October 4th, 2014
Gene Model: October 4th, 2014
6 days agoaasr7 abscisic acid stress ripening7:
 
GRMZM2G014797
Liang, YN et al. 2019. Int J Mol Sci 20:2278     Reference: May 2nd, 2024
Gene Product: January 2nd, 2019
Gene Model: November 1st, 2011
6 days agoaasr8 abscisic acid stress ripening8:
 
GRMZM2G314075
Liang, YN et al. 2019. Int J Mol Sci 20:2278     Reference: May 2nd, 2024
Gene Product: January 2nd, 2019
Gene Model: November 1st, 2011
6 days agoraf2 rubisco accumulation factor2:
 
GRMZM2G139123
Kathryn Eshenour et al. 2024. Transgenic Expression of Rubisco Accumulation Factor2 and Rubisco Subunits Increases Photosynthesis and Growth in Maize. J Exp Bot. :doi: 10.1093/jxb/erae186.     Reference: May 2nd, 2024
Gene Product: December 16th, 2015
Variation: October 4th, 2014
Gene Model: October 4th, 2014
7 days agobhlh166 bHLH-transcription factor 166:
3.09
   Zhenwei Yan et al. 2024. The ZmbHLH47-ZmSnRK2.9 Module Promotes Drought Tolerance in Maize Int J Mol Sci. 25:4957.     Reference: May 1st, 2024
Variation: September 25th, 2007
7 days agobhlh187 bHLH-transcription factor 187:
4.02
GRMZM2G133675
Zhenwei Yan et al. 2024. The ZmbHLH47-ZmSnRK2.9 Module Promotes Drought Tolerance in Maize Int J Mol Sci. 25:4957.     Reference: May 1st, 2024
Gene Product: September 14th, 2016
Gene Model: April 11th, 2020
7 days agosnrkII9 SnRK2 serine threonine protein kinase9:
 
GRMZM2G081915
Zhenwei Yan et al. 2024. The ZmbHLH47-ZmSnRK2.9 Module Promotes Drought Tolerance in Maize Int J Mol Sci. 25:4957.     Reference: May 1st, 2024
Gene Product: April 14th, 2018
Gene Model: April 14th, 2018
8 days agolarp9 la motif-related protein9:
 
   Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: October 28th, 2021
8 days agolarp10 la motif-related protein10:
 
   Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: October 28th, 2021
8 days agolarp11 la motif-related protein11:
 
   Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: October 28th, 2021
8 days agolarp13 la motif-related protein13:
 
   Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: October 28th, 2021
8 days agolarp14 la motif-related protein14:
 
   Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: October 28th, 2021
8 days agolarp8 la motif-related protein8:
5.00
GRMZM5G861064
Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: October 28th, 2021
Variation: September 25th, 2007
Gene Model: August 25th, 2021
8 days agoact1 actin1:
8.03 - 8.04
   Paloma Serra et al. 2024. A maize enzyme from the 2-oxoglutarate-dependent oxygenase family with unique kinetic properties, mediates resistance against pathogens and regulates senescence. Plant Cell Environ. :doi: 10.1111/pce.14929.     Reference: April 30th, 2024
Gene Product: September 1st, 2003
Variation: September 4th, 2013
8 days agogpc1 glyceraldehyde-3-phosphate dehydrogenase1:
4.05
   Paloma Serra et al. 2024. A maize enzyme from the 2-oxoglutarate-dependent oxygenase family with unique kinetic properties, mediates resistance against pathogens and regulates senescence. Plant Cell Environ. :doi: 10.1111/pce.14929.     Reference: April 30th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
8 days agompk1 MAP kinase1:
9.06
GRMZM2G053987
Paloma Serra et al. 2024. A maize enzyme from the 2-oxoglutarate-dependent oxygenase family with unique kinetic properties, mediates resistance against pathogens and regulates senescence. Plant Cell Environ. :doi: 10.1111/pce.14929.     Reference: April 30th, 2024
Gene Product: July 12th, 2013
Variation: January 16th, 2013
Gene Model: July 9th, 2013
8 days agotubtf15 TUB-transcription factor 15:
3.08
GRMZM2G062154
Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: September 29th, 2015
Variation: September 1st, 2003
Gene Model: September 29th, 2015
8 days agolarp12 la motif-related protein12:
7.06 - 7.06
GRMZM2G090203
Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Variation: September 1st, 2003
Gene Model: March 16th, 2021
8 days agomir3 maize insect resistance3:
 
GRMZM2G166281
Paloma Serra et al. 2024. A maize enzyme from the 2-oxoglutarate-dependent oxygenase family with unique kinetic properties, mediates resistance against pathogens and regulates senescence. Plant Cell Environ. :doi: 10.1111/pce.14929.     Reference: April 30th, 2024
Gene Product: October 11th, 2021
Variation: August 1st, 2011
Gene Model: February 12th, 2014
8 days agoprp5 pathogenesis related protein5:
1.06
GRMZM2G402631
Paloma Serra et al. 2024. A maize enzyme from the 2-oxoglutarate-dependent oxygenase family with unique kinetic properties, mediates resistance against pathogens and regulates senescence. Plant Cell Environ. :doi: 10.1111/pce.14929.     Reference: April 30th, 2024
Gene Product: December 12th, 2022
Variation: August 20th, 2011
Gene Model: October 30th, 2015
8 days agosbip2a small basic membrane intrinsic protein2a:
1.04
GRMZM2G175038
Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: January 27th, 2022
Variation: September 1st, 2003
Gene Model: February 2nd, 2015
8 days agolarp5 la motif-related protein5:
2.08
GRMZM2G072339
Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: October 28th, 2021
Gene Model: March 23rd, 2020
8 days agoopr8 12-oxo-phytodienoic acid reductase8:
4.05
GRMZM2G082087
Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: September 3rd, 2010
Variation: December 16th, 2019
Gene Model: November 25th, 2013
8 days agoprp4 pathogenesis related protein4:
7.00
GRMZM2G465226
Paloma Serra et al. 2024. A maize enzyme from the 2-oxoglutarate-dependent oxygenase family with unique kinetic properties, mediates resistance against pathogens and regulates senescence. Plant Cell Environ. :doi: 10.1111/pce.14929.     Reference: April 30th, 2024
Gene Product: December 12th, 2022
Variation: August 29th, 2011
Gene Model: November 20th, 2014
8 days agofls1 flavonol synthase1:
 
GRMZM2G152801
Paloma Serra et al. 2024. A maize enzyme from the 2-oxoglutarate-dependent oxygenase family with unique kinetic properties, mediates resistance against pathogens and regulates senescence. Plant Cell Environ. :doi: 10.1111/pce.14929.     Reference: April 30th, 2024
Gene Product: October 10th, 2012
Variation: October 9th, 2012
Gene Model: October 9th, 2012
8 days agofls2 flavonol synthase2:
 
GRMZM2G069298
Paloma Serra et al. 2024. A maize enzyme from the 2-oxoglutarate-dependent oxygenase family with unique kinetic properties, mediates resistance against pathogens and regulates senescence. Plant Cell Environ. :doi: 10.1111/pce.14929.     Reference: April 30th, 2024
Gene Product: October 10th, 2012
Gene Model: October 9th, 2012
8 days agosweet1b sugars will eventually be exported transporter1b:
 
GRMZM2G153358
Paloma Serra et al. 2024. A maize enzyme from the 2-oxoglutarate-dependent oxygenase family with unique kinetic properties, mediates resistance against pathogens and regulates senescence. Plant Cell Environ. :doi: 10.1111/pce.14929.     Reference: April 30th, 2024
Gene Product: November 4th, 2015
Variation: April 19th, 2019
Gene Model: November 3rd, 2015
8 days agopyl10 pyrabactin resistance-like protein10:
 
GRMZM2G063882
Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: January 31st, 2021
Gene Model: April 21st, 2018
8 days agocoi4 coronatine insensitive4:
 
GRMZM2G079112
Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: November 2nd, 2018
Variation: February 15th, 2022
Gene Model: November 2nd, 2018
8 days agoGRMZM2G050234  :
 
GRMZM2G050234
Paloma Serra et al. 2024. A maize enzyme from the 2-oxoglutarate-dependent oxygenase family with unique kinetic properties, mediates resistance against pathogens and regulates senescence. Plant Cell Environ. :doi: 10.1111/pce.14929.   AT4G10500 (TAIR)
LOC_Os04g49210 (MSU/TIGR)
Reference: April 30th, 2024
Gene Product: April 30th, 2024
Gene Model: November 21st, 2019
8 days agopab2 polyA binding protein2:
 
GRMZM2G102829
Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: August 4th, 2020
Gene Model: August 4th, 2020
8 days agocoi6 coronatine insensitive6:
 
   Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: November 2nd, 2018
Variation: February 15th, 2022
8 days agopyl7 pyrabactin resistance-like protein7:
 
GRMZM2G144224
Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: January 31st, 2021
Gene Model: January 31st, 2021
8 days agopyl13 pyrabactin resistance-like protein13:
 
GRMZM2G048733
Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: January 31st, 2021
Gene Model: January 31st, 2021
8 days agolarp1 la motif-related protein1:
 
GRMZM2G020281
Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: October 28th, 2021
Variation: February 25th, 2021
Gene Model: February 25th, 2021
8 days agostp2 sugar transport2:
 
AC208897.3_FG004
Paloma Serra et al. 2024. A maize enzyme from the 2-oxoglutarate-dependent oxygenase family with unique kinetic properties, mediates resistance against pathogens and regulates senescence. Plant Cell Environ. :doi: 10.1111/pce.14929.     Reference: April 30th, 2024
Gene Product: January 2nd, 2023
Gene Model: March 4th, 2021
8 days agoccp14 cysteine protease14:
 
GRMZM2G045706
Paloma Serra et al. 2024. A maize enzyme from the 2-oxoglutarate-dependent oxygenase family with unique kinetic properties, mediates resistance against pathogens and regulates senescence. Plant Cell Environ. :doi: 10.1111/pce.14929.     Reference: April 30th, 2024
Gene Product: October 11th, 2021
Gene Model: October 11th, 2021
8 days agolarp2 la motif-related protein2:
 
GRMZM2G127665
Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: October 28th, 2021
Gene Model: October 28th, 2021
8 days agolarp3 la motif-related protein3:
 
GRMZM2G045503
Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: October 28th, 2021
Gene Model: October 28th, 2021
8 days agolarp6 la motif-related protein6:
 
GRMZM2G020281
Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: October 28th, 2021
Gene Model: October 28th, 2021
8 days agolarp7 la motif-related protein7:
8.01
   Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: October 28th, 2021
8 days agolarp4 la motif-related protein4:
10.03
GRMZM2G171518
Xiaoqin Xiang et al. 2024. Genome-wide investigation of the LARP gene family: focus on functional identification and transcriptome profiling of ZmLARP6c1 in maize pollen. BMC Plant Biology. 24:348.     Reference: April 30th, 2024
Gene Product: October 28th, 2021
Gene Model: November 29th, 2019
9 days agohb67 Homeobox-transcription factor 67:
2.01
   Gregory, J. et al. 2024. Mechanisms Of Meristem Maintenance By Maize Transcriptional Corepressors bioRxiv preprint. :doi: 10.1101/2024.04.26.591374.     Reference: April 29th, 2024
Gene Product: August 25th, 2017
9 days agoct2 compact plant2:
1.01 - 1.02
GRMZM2G064732
Gregory, J. et al. 2024. Mechanisms Of Meristem Maintenance By Maize Transcriptional Corepressors bioRxiv preprint. :doi: 10.1101/2024.04.26.591374.     Reference: April 29th, 2024
Gene Product: September 16th, 2013
Variation: September 20th, 2013
Gene Model: September 16th, 2013
9 days agokn1 knotted1:
1.10
   Gregory, J. et al. 2024. Mechanisms Of Meristem Maintenance By Maize Transcriptional Corepressors bioRxiv preprint. :doi: 10.1101/2024.04.26.591374.     Reference: April 29th, 2024
Variation: December 6th, 2013
9 days agodhn1 dehydrin1:
6.05
   Xinglong Wang et al. 2024. Improving resilience to high temperature in drought: water replenishment enhances sucrose and amino acid metabolisms in maize grain. Plant J.     Reference: April 29th, 2024
Gene Product: September 1st, 2003
Variation: November 20th, 2012
9 days agosh1 shrunken1:
9.01
   Xinglong Wang et al. 2024. Improving resilience to high temperature in drought: water replenishment enhances sucrose and amino acid metabolisms in maize grain. Plant J.     Reference: April 29th, 2024
Gene Product: October 25th, 2006
Variation: June 9th, 2020
9 days agosh2 shrunken2:
3.09
   Xinglong Wang et al. 2024. Improving resilience to high temperature in drought: water replenishment enhances sucrose and amino acid metabolisms in maize grain. Plant J.     Reference: April 29th, 2024
Gene Product: November 4th, 2014
Variation: January 9th, 2019
9 days agotd1 thick tassel dwarf1:
5.03
GRMZM2G300133
Gregory, J. et al. 2024. Mechanisms Of Meristem Maintenance By Maize Transcriptional Corepressors bioRxiv preprint. :doi: 10.1101/2024.04.26.591374.     Reference: April 29th, 2024
Gene Product: October 22nd, 2012
Variation: October 23rd, 2012
Gene Model: October 22nd, 2012
9 days agofrk2 fructokinase2:
6.00
GRMZM2G051677
Xinglong Wang et al. 2024. Improving resilience to high temperature in drought: water replenishment enhances sucrose and amino acid metabolisms in maize grain. Plant J.     Reference: April 29th, 2024
Variation: May 1st, 2010
Gene Model: July 29th, 2016
9 days agorel2 ramosa1 enhancer locus2:
10.03
   Gregory, J. et al. 2024. Mechanisms Of Meristem Maintenance By Maize Transcriptional Corepressors bioRxiv preprint. :doi: 10.1101/2024.04.26.591374.     Reference: April 29th, 2024
Gene Product: October 23rd, 2018
Variation: September 5th, 2019
9 days agohb122 Homeobox-transcription factor 122:
 
   Gregory, J. et al. 2024. Mechanisms Of Meristem Maintenance By Maize Transcriptional Corepressors bioRxiv preprint. :doi: 10.1101/2024.04.26.591374.     Reference: April 29th, 2024
Gene Product: August 25th, 2017
9 days agofea4 fasciated ear4:
 
   Gregory, J. et al. 2024. Mechanisms Of Meristem Maintenance By Maize Transcriptional Corepressors bioRxiv preprint. :doi: 10.1101/2024.04.26.591374.     Reference: April 29th, 2024
Gene Product: August 21st, 2018
Variation: July 7th, 2017
9 days agofea2 fasciated ear2:
4.05
   Gregory, J. et al. 2024. Mechanisms Of Meristem Maintenance By Maize Transcriptional Corepressors bioRxiv preprint. :doi: 10.1101/2024.04.26.591374.     Reference: April 29th, 2024
Gene Product: February 1st, 2023
Variation: November 13th, 2020
9 days agoagpll1 ADP glucose pyrophosphorylase large subunit leaf1AGPL4:
1.10
GRMZM2G391936
Xinglong Wang et al. 2024. Improving resilience to high temperature in drought: water replenishment enhances sucrose and amino acid metabolisms in maize grain. Plant J.     Reference: April 29th, 2024
Gene Product: January 3rd, 2014
Variation: September 22nd, 2017
Gene Model: September 22nd, 2017
9 days agoagp2 ADP glucose pyrophosphorylase2:
6.07 - 6.08
GRMZM2G027955
Xinglong Wang et al. 2024. Improving resilience to high temperature in drought: water replenishment enhances sucrose and amino acid metabolisms in maize grain. Plant J.     Reference: April 29th, 2024
Gene Product: July 22nd, 2015
Variation: June 15th, 2012
Gene Model: June 15th, 2012
9 days agotre1 trehalase1:
 
GRMZM2G162690
Xinglong Wang et al. 2024. Improving resilience to high temperature in drought: water replenishment enhances sucrose and amino acid metabolisms in maize grain. Plant J.     Reference: April 29th, 2024
Gene Product: September 15th, 2013
Gene Model: September 15th, 2013
9 days agotrpp12 trehalose-6-phosphate phosphatase12:
 
GRMZM2G178546
Xinglong Wang et al. 2024. Improving resilience to high temperature in drought: water replenishment enhances sucrose and amino acid metabolisms in maize grain. Plant J.     Reference: April 29th, 2024
Gene Product: October 3rd, 2020
Gene Model: September 15th, 2013
9 days agotrps15 trehalose-6-phosphate synthase15:
 
GRMZM2G118462
Xinglong Wang et al. 2024. Improving resilience to high temperature in drought: water replenishment enhances sucrose and amino acid metabolisms in maize grain. Plant J.     Reference: April 29th, 2024
Gene Product: October 3rd, 2020
Gene Model: September 15th, 2013
9 days agofcp1 fon2-like cle protein1:
 
GRMZM2G165836
Gregory, J. et al. 2024. Mechanisms Of Meristem Maintenance By Maize Transcriptional Corepressors bioRxiv preprint. :doi: 10.1101/2024.04.26.591374.   LOC_Os04g39770 (MSU/TIGR)
Os04g0473800 (Gramene)
Reference: April 29th, 2024
Gene Product: May 21st, 2016
Variation: April 15th, 2019
Gene Model: May 21st, 2016
9 days agocle7 clavata3/esr-related7:
 
GRMZM2G372364
Gregory, J. et al. 2024. Mechanisms Of Meristem Maintenance By Maize Transcriptional Corepressors bioRxiv preprint. :doi: 10.1101/2024.04.26.591374.     Reference: April 29th, 2024
Gene Product: February 22nd, 2021
Variation: March 6th, 2020
Gene Model: September 15th, 2016
9 days agotpl1 topless-related1:
 
GRMZM2G316967
Gregory, J. et al. 2024. Mechanisms Of Meristem Maintenance By Maize Transcriptional Corepressors bioRxiv preprint. :doi: 10.1101/2024.04.26.591374.     Reference: April 29th, 2024
Gene Product: October 23rd, 2018
Variation: April 29th, 2024
Gene Model: December 12th, 2016
9 days agotpl2 topless-related2:
 
GRMZM2G030422
Gregory, J. et al. 2024. Mechanisms Of Meristem Maintenance By Maize Transcriptional Corepressors bioRxiv preprint. :doi: 10.1101/2024.04.26.591374.     Reference: April 29th, 2024
Gene Product: October 23rd, 2018
Gene Model: December 12th, 2016
9 days agocrn1 coryne1:
 
GRMZM2G032132
Gregory, J. et al. 2024. Mechanisms Of Meristem Maintenance By Maize Transcriptional Corepressors bioRxiv preprint. :doi: 10.1101/2024.04.26.591374.   AT5G13290 (TAIR) Reference: April 29th, 2024
Gene Product: July 10th, 2019
Gene Model: May 21st, 2018
9 days agoptox1 plastid terminal oxidase1:
 
GRMZM2G102349
Peng, YX et al. 2024. ZmPTOX1, a plastid terminal oxidase, contributes to redox homeostasis during seed development and germination. Plant J. :doi: 10.1111/tpj.16776.   AT4G22260 (TAIR)
LOC_Os04g57320 (MSU/TIGR)
Reference: April 29th, 2024
Gene Product: June 15th, 2023
Variation: April 29th, 2024
Gene Model: April 27th, 2020
9 days agorelk3 rel2-like3:
9.06
GRMZM2G550865
Gregory, J. et al. 2024. Mechanisms Of Meristem Maintenance By Maize Transcriptional Corepressors bioRxiv preprint. :doi: 10.1101/2024.04.26.591374.     Reference: April 29th, 2024
Gene Product: October 23rd, 2018
Gene Model: October 23rd, 2018
11 days agogsr1 glutathione reductase1:
1.01
   Ildikó Jócsák et al. 2024. Alterations of Photosynthetic and Oxidative Processes Influenced by the Presence of Different Zinc and Cadmium Concentrations in Maize Seedlings: Transition from Essential to Toxic Functions. Plants. 13     Reference: April 27th, 2024
Gene Product: September 1st, 2003
Variation: January 30th, 2015
11 days agogst1 glutathione-S-transferase1:
8.08 - 8.09
   Ildikó Jócsák et al. 2024. Alterations of Photosynthetic and Oxidative Processes Influenced by the Presence of Different Zinc and Cadmium Concentrations in Maize Seedlings: Transition from Essential to Toxic Functions. Plants. 13     Reference: April 27th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
11 days agolox2 lipoxygenase2:
3.06
GRMZM2G156861
Ildikó Jócsák et al. 2024. Alterations of Photosynthetic and Oxidative Processes Influenced by the Presence of Different Zinc and Cadmium Concentrations in Maize Seedlings: Transition from Essential to Toxic Functions. Plants. 13     Reference: April 27th, 2024
Gene Product: January 3rd, 2018
Variation: July 18th, 2017
Gene Model: June 10th, 2014
11 days agoprp11 pathogenesis-related protein11:
4.02
GRMZM2G117971
Xiaoyu Gu et al. 2024. Plant immunity suppression by an β-1,3-glucanase of the maize anthracnose pathogen Colletotrichum graminicola. BMC Plant Biology. 24:339.     Reference: April 27th, 2024
Gene Product: May 31st, 2021
Gene Model: September 16th, 2017
11 days agocals1 callose synthase1:
 
GRMZM2G180951
Xiaoyu Gu et al. 2024. Plant immunity suppression by an β-1,3-glucanase of the maize anthracnose pathogen Colletotrichum graminicola. BMC Plant Biology. 24:339.     Reference: April 27th, 2024
Gene Product: July 5th, 2021
Gene Model: July 5th, 2021
12 days agocdj5 chaperone DNA J5:
 
   Yu, S et al. 2024. Dynamic transcriptome profiling revealed a key gene ZmJMJ20 and pathways associated with cadmium stress in maize Ecotoxicol Environ Safety. 277:116352.     Reference: April 26th, 2024
Gene Product: September 1st, 2003
12 days agoLOC100281141  :
 
   Yu, S et al. 2024. Dynamic transcriptome profiling revealed a key gene ZmJMJ20 and pathways associated with cadmium stress in maize Ecotoxicol Environ Safety. 277:116352.     Reference: April 26th, 2024
Gene Product: February 26th, 2021
12 days agoplt16 phospholipid transfer protein16:
 
   Yu, S et al. 2024. Dynamic transcriptome profiling revealed a key gene ZmJMJ20 and pathways associated with cadmium stress in maize Ecotoxicol Environ Safety. 277:116352.     Reference: April 26th, 2024
Gene Product: September 1st, 2003
12 days agojmj23 JUMONJI-transcription factor 23:
 
   Yu, S et al. 2024. Dynamic transcriptome profiling revealed a key gene ZmJMJ20 and pathways associated with cadmium stress in maize Ecotoxicol Environ Safety. 277:116352.   AT3G20810 (TAIR) Reference: April 26th, 2024
Gene Product: April 3rd, 2019
12 days agoacc2 acetyl-CoA carboxylase2:
2.04
GRMZM5G858094
Zhang, SM et al. 2024. Fatty acid de novo biosynthesis in plastids: Key enzymes and their critical roles for male reproduction and other processes in plants. Plant Physiol Biochem. 210:108654.     Reference: April 26th, 2024
Gene Product: September 29th, 2020
Variation: July 7th, 2012
Gene Model: July 7th, 2012
12 days agoms25 male sterile25:
9.04 - 9.06
GRMZM2G120987
Zhang, SM et al. 2024. Fatty acid de novo biosynthesis in plastids: Key enzymes and their critical roles for male reproduction and other processes in plants. Plant Physiol Biochem. 210:108654.     Reference: April 26th, 2024
Gene Product: December 1st, 2017
Variation: April 2nd, 2021
Gene Model: December 1st, 2017
12 days agofat1 fatty acyl thioesterase1:
9.03
GRMZM2G406603
Zhang, SM et al. 2024. Fatty acid de novo biosynthesis in plastids: Key enzymes and their critical roles for male reproduction and other processes in plants. Plant Physiol Biochem. 210:108654.     Reference: April 26th, 2024
Gene Product: January 3rd, 2023
Variation: May 27th, 2014
Gene Model: July 27th, 2016
12 days agosacd3 stearoyl-acyl-carrier-protein desaturase3:
1.05
   An, XL et al. 2023. CRISPR/Cas9-based genome editing of 14 lipid metabolic genes reveals a sporopollenin metabolon ZmPKSB-ZmTKPR1-1/-2 required for pollen exine formation in maize. Plant Biotechnol J. :doi: 10.1111/pbi.14181.     Reference: April 26th, 2024
Gene Product: October 10th, 2016
Variation: November 3rd, 2017
12 days agomyb84 MYB-transcription factor 84:
10.04
   Zhang, SM et al. 2024. Fatty acid de novo biosynthesis in plastids: Key enzymes and their critical roles for male reproduction and other processes in plants. Plant Physiol Biochem. 210:108654.     Reference: April 26th, 2024
Variation: August 19th, 2022
12 days agoacc1 acetyl-coenzyme A carboxylase1:
10.04
AC197672.3_FG002
Zhang, SM et al. 2024. Fatty acid de novo biosynthesis in plastids: Key enzymes and their critical roles for male reproduction and other processes in plants. Plant Physiol Biochem. 210:108654.     Reference: April 26th, 2024
Gene Product: September 1st, 2003
Variation: July 6th, 2012
Gene Model: July 7th, 2012
12 days agofad15 fatty acid desaturase15:
10.03
GRMZM2G169240
Yu, S et al. 2024. Dynamic transcriptome profiling revealed a key gene ZmJMJ20 and pathways associated with cadmium stress in maize Ecotoxicol Environ Safety. 277:116352.     Reference: April 26th, 2024
Gene Product: January 6th, 2022
Gene Model: July 18th, 2021
12 days agoprp3 pathogenesis-related protein3:
4.02
GRMZM2G117989
Yu, S et al. 2024. Dynamic transcriptome profiling revealed a key gene ZmJMJ20 and pathways associated with cadmium stress in maize Ecotoxicol Environ Safety. 277:116352.     Reference: April 26th, 2024
Gene Product: December 12th, 2022
Gene Model: December 24th, 2015
12 days agocol6 C2C2-CO-like-transcription factor 6:
 
   Yu, S et al. 2024. Dynamic transcriptome profiling revealed a key gene ZmJMJ20 and pathways associated with cadmium stress in maize Ecotoxicol Environ Safety. 277:116352.     Reference: April 26th, 2024
Gene Product: June 18th, 2018
12 days agohsftf1 HSF-transcription factor 1:
 
   Mingxiu Ruan et al. 2024. The complex transcriptional regulation of heat stress response in maize. Stress Biol. 4:24.     Reference: April 26th, 2024
Gene Product: May 15th, 2020
12 days agohsftf12 HSF-transcription factor 12:
 
   Mingxiu Ruan et al. 2024. The complex transcriptional regulation of heat stress response in maize. Stress Biol. 4:24.     Reference: April 26th, 2024
Gene Product: May 15th, 2020
12 days agohsftf13 HSF-transcription factor 13:
 
   Mingxiu Ruan et al. 2024. The complex transcriptional regulation of heat stress response in maize. Stress Biol. 4:24.     Reference: April 26th, 2024
Gene Product: May 15th, 2020
12 days agohsftf20 HSF-transcription factor 20:
 
   Mingxiu Ruan et al. 2024. The complex transcriptional regulation of heat stress response in maize. Stress Biol. 4:24.     Reference: April 26th, 2024
Gene Product: May 15th, 2020
Variation: April 4th, 2024
12 days agohsftf24 HSF-transcription factor 24:
 
   Mingxiu Ruan et al. 2024. The complex transcriptional regulation of heat stress response in maize. Stress Biol. 4:24.     Reference: April 26th, 2024
Gene Product: May 15th, 2020
12 days agohsftf27 HSF-transcription factor 27:
 
   Mingxiu Ruan et al. 2024. The complex transcriptional regulation of heat stress response in maize. Stress Biol. 4:24.     Reference: April 26th, 2024
Gene Product: May 15th, 2020
12 days agohsftf4 HSF-transcription factor 4:
 
   Mingxiu Ruan et al. 2024. The complex transcriptional regulation of heat stress response in maize. Stress Biol. 4:24.     Reference: April 26th, 2024
Gene Product: May 15th, 2020
Variation: April 4th, 2024
12 days agohsftf5 HSF-transcription factor 5:
 
   Mingxiu Ruan et al. 2024. The complex transcriptional regulation of heat stress response in maize. Stress Biol. 4:24.     Reference: April 26th, 2024
Gene Product: May 15th, 2020
12 days agohsftf7 HSF-transcription factor 7:
 
   Mingxiu Ruan et al. 2024. The complex transcriptional regulation of heat stress response in maize. Stress Biol. 4:24.     Reference: April 26th, 2024
Gene Product: May 15th, 2020
12 days agohsftf8 HSF-transcription factor 8:
 
   Mingxiu Ruan et al. 2024. The complex transcriptional regulation of heat stress response in maize. Stress Biol. 4:24.     Reference: April 26th, 2024
Gene Product: May 15th, 2020
12 days agocsu43  :
9.04
GRMZM2G152105
Zhang, SM et al. 2024. Fatty acid de novo biosynthesis in plastids: Key enzymes and their critical roles for male reproduction and other processes in plants. Plant Physiol Biochem. 210:108654.     Reference: April 26th, 2024
Variation: September 1st, 2003
Gene Model: January 14th, 2019
12 days agodfr2 dihydroflavonol-4-reductase2:
1.06
GRMZM2G168893
An, XL et al. 2023. CRISPR/Cas9-based genome editing of 14 lipid metabolic genes reveals a sporopollenin metabolon ZmPKSB-ZmTKPR1-1/-2 required for pollen exine formation in maize. Plant Biotechnol J. :doi: 10.1111/pbi.14181.   AT4G35420 (TAIR) Reference: April 26th, 2024
Gene Product: October 4th, 2023
Gene Model: August 29th, 2017
12 days agohsftf11 HSF-transcription factor 11:
1.11
GRMZM2G132971
Mingxiu Ruan et al. 2024. The complex transcriptional regulation of heat stress response in maize. Stress Biol. 4:24.   AT2G26150 (TAIR) Reference: April 26th, 2024
Gene Product: May 15th, 2020
Variation: March 17th, 2021
Gene Model: October 13th, 2017
12 days agofab1 fatty acid biosynthesis1:
10.04
GRMZM2G099696
Zhang, SM et al. 2024. Fatty acid de novo biosynthesis in plastids: Key enzymes and their critical roles for male reproduction and other processes in plants. Plant Physiol Biochem. 210:108654.     Reference: April 26th, 2024
Gene Product: September 1st, 2003
Variation: December 1st, 2012
Gene Model: July 27th, 2016
12 days agoAI795367  :
10.02
GRMZM2G118286
Zhang, SM et al. 2024. Fatty acid de novo biosynthesis in plastids: Key enzymes and their critical roles for male reproduction and other processes in plants. Plant Physiol Biochem. 210:108654.     Reference: April 26th, 2024
Variation: July 29th, 2004
Gene Model: December 28th, 2017
12 days agoicl1 isocitrate lyase1:
7.03
GRMZM2G056369
Yu, S et al. 2024. Dynamic transcriptome profiling revealed a key gene ZmJMJ20 and pathways associated with cadmium stress in maize Ecotoxicol Environ Safety. 277:116352.     Reference: April 26th, 2024
Gene Product: September 1st, 2003
Variation: July 29th, 2015
Gene Model: July 29th, 2015
12 days agopco121523  :
2.08
GRMZM2G124335
Zhang, SM et al. 2024. Fatty acid de novo biosynthesis in plastids: Key enzymes and their critical roles for male reproduction and other processes in plants. Plant Physiol Biochem. 210:108654.     Reference: April 26th, 2024
Variation: August 15th, 2021
Gene Model: February 22nd, 2018
12 days agoburp6 BURP domain-containing protein-RD22-like6:
 
GRMZM2G113229
An, XL et al. 2023. CRISPR/Cas9-based genome editing of 14 lipid metabolic genes reveals a sporopollenin metabolon ZmPKSB-ZmTKPR1-1/-2 required for pollen exine formation in maize. Plant Biotechnol J. :doi: 10.1111/pbi.14181.     Reference: April 26th, 2024
Gene Product: August 18th, 2017
Variation: August 18th, 2017
Gene Model: August 18th, 2017
12 days agoprp6 pathogenesis-related protein6:
 
GRMZM2G112488
Yu, S et al. 2024. Dynamic transcriptome profiling revealed a key gene ZmJMJ20 and pathways associated with cadmium stress in maize Ecotoxicol Environ Safety. 277:116352.     Reference: April 26th, 2024
Gene Product: December 12th, 2022
Gene Model: September 30th, 2017
12 days agotoc2 timing of cab expression2:
 
GRMZM2G148453
Yu, S et al. 2024. Dynamic transcriptome profiling revealed a key gene ZmJMJ20 and pathways associated with cadmium stress in maize Ecotoxicol Environ Safety. 277:116352.   AT5G61380 (TAIR) Reference: April 26th, 2024
Gene Product: January 11th, 2018
Gene Model: January 11th, 2018
12 days agocl11117_1a  :
5.02
GRMZM2G569855
Yu, S et al. 2024. Dynamic transcriptome profiling revealed a key gene ZmJMJ20 and pathways associated with cadmium stress in maize Ecotoxicol Environ Safety. 277:116352.     Reference: April 26th, 2024
Gene Product: August 31st, 2023
Gene Model: May 7th, 2022
12 days agovq52 VQ motif-transcription factor52:
 
GRMZM2G122447
Yu, S et al. 2024. Dynamic transcriptome profiling revealed a key gene ZmJMJ20 and pathways associated with cadmium stress in maize Ecotoxicol Environ Safety. 277:116352.     Reference: April 26th, 2024
Gene Product: August 31st, 2019
Gene Model: August 31st, 2019
12 days agofax1 fatty acid export1:
 
GRMZM2G046529
Zhang, SM et al. 2024. Fatty acid de novo biosynthesis in plastids: Key enzymes and their critical roles for male reproduction and other processes in plants. Plant Physiol Biochem. 210:108654.   At3g57280 (TAIR) Reference: April 26th, 2024
Gene Product: March 14th, 2020
Gene Model: March 14th, 2020
12 days agoacsn1 acyl-CoA synthetase1:
 
GRMZM2G117064
Zhang, SM et al. 2024. Fatty acid de novo biosynthesis in plastids: Key enzymes and their critical roles for male reproduction and other processes in plants. Plant Physiol Biochem. 210:108654.     Reference: April 26th, 2024
Gene Product: December 20th, 2011
Gene Model: November 27th, 2020
12 days agoosm1 osmotin-like protein1:
 
GRMZM2G136372
Yu, S et al. 2024. Dynamic transcriptome profiling revealed a key gene ZmJMJ20 and pathways associated with cadmium stress in maize Ecotoxicol Environ Safety. 277:116352.   AT4G11650 (TAIR) Reference: April 26th, 2024
Gene Product: September 1st, 2003
Gene Model: November 30th, 2020
12 days agompkl5 MAP kinase-like5:
 
GRMZM2G305321
Yu, S et al. 2024. Dynamic transcriptome profiling revealed a key gene ZmJMJ20 and pathways associated with cadmium stress in maize Ecotoxicol Environ Safety. 277:116352.     Reference: April 26th, 2024
Gene Product: May 13th, 2014
Gene Model: March 12th, 2021
12 days agoIDP2138  :
 
GRMZM2G079308
Zhang, SM et al. 2024. Fatty acid de novo biosynthesis in plastids: Key enzymes and their critical roles for male reproduction and other processes in plants. Plant Physiol Biochem. 210:108654.     Reference: April 26th, 2024
Variation: June 30th, 2021
Gene Model: May 15th, 2021
12 days agoprp14 pathogenesis-related protein14:
 
GRMZM2G304442
Yu, S et al. 2024. Dynamic transcriptome profiling revealed a key gene ZmJMJ20 and pathways associated with cadmium stress in maize Ecotoxicol Environ Safety. 277:116352.     Reference: April 26th, 2024
Gene Product: December 12th, 2022
Gene Model: November 19th, 2021
12 days agosaur15 small auxin up RNA15:
 
GRMZM2G365162
Guantong Gong et al. 2024. Genetic analysis and QTL mapping for pericarp thickness in maize (Zea mays L.). BMC Plant Biology. 24:338.     Reference: April 26th, 2024
Gene Product: November 26th, 2021
Gene Model: November 26th, 2021
12 days agosaur48 small auxin up RNA48:
 
GRMZM2G332390
Yu, S et al. 2024. Dynamic transcriptome profiling revealed a key gene ZmJMJ20 and pathways associated with cadmium stress in maize Ecotoxicol Environ Safety. 277:116352.     Reference: April 26th, 2024
Gene Product: November 26th, 2021
Gene Model: November 26th, 2021
12 days agobzip60 bZIP transcription factor60:
9.03
GRMZM2G025812
Mingxiu Ruan et al. 2024. The complex transcriptional regulation of heat stress response in maize. Stress Biol. 4:24.     Reference: April 26th, 2024
Gene Product: August 21st, 2018
Variation: November 4th, 2022
Gene Model: April 16th, 2013
12 days agodfr1 dihydroflavonoid reductase1:
7.03 - 7.02
GRMZM2G004683
An, XL et al. 2023. CRISPR/Cas9-based genome editing of 14 lipid metabolic genes reveals a sporopollenin metabolon ZmPKSB-ZmTKPR1-1/-2 required for pollen exine formation in maize. Plant Biotechnol J. :doi: 10.1111/pbi.14181.   AT4G35420 (TAIR) Reference: April 26th, 2024
Gene Product: October 4th, 2023
Variation: November 21st, 2012
Gene Model: November 21st, 2012
12 days agoIDP2589  :
2.07
GRMZM2G102878
Zhang, SM et al. 2024. Fatty acid de novo biosynthesis in plastids: Key enzymes and their critical roles for male reproduction and other processes in plants. Plant Physiol Biochem. 210:108654.     Reference: April 26th, 2024
Variation: March 31st, 2005
Gene Model: February 20th, 2019
12 days agocdpk20 calcium dependent protein kinase20:
8.04
GRMZM2G030673
Mingxiu Ruan et al. 2024. The complex transcriptional regulation of heat stress response in maize. Stress Biol. 4:24.     Reference: April 26th, 2024
Gene Product: December 3rd, 2013
Variation: March 31st, 2005
Gene Model: January 10th, 2018
12 days agofat2 fatty acyl-ACP thioesterase2:
9.02
GRMZM5G829544
Zhang, SM et al. 2024. Fatty acid de novo biosynthesis in plastids: Key enzymes and their critical roles for male reproduction and other processes in plants. Plant Physiol Biochem. 210:108654.   AT1G08510 (TAIR) Reference: April 26th, 2024
Gene Product: May 23rd, 2012
Variation: May 6th, 2022
Gene Model: May 23rd, 2012
12 days agokcs32 3-ketoacyl-CoA synthase32:
1.05
GRMZM2G063024
An, XL et al. 2023. CRISPR/Cas9-based genome editing of 14 lipid metabolic genes reveals a sporopollenin metabolon ZmPKSB-ZmTKPR1-1/-2 required for pollen exine formation in maize. Plant Biotechnol J. :doi: 10.1111/pbi.14181.     Reference: April 26th, 2024
Gene Product: November 1st, 2018
Gene Model: February 8th, 2020
13 days agoect21 evolutionarily conserved C-terminal21:
 
   Keli Xu et al. 2024. Genome-Wide Analysis of Maize ECT Family Members and Their Expressions in Response to Abiotic Stresses J Nucl Agric Sci. 38:1035-1047.     Reference: April 25th, 2024
Gene Product: April 25th, 2024
13 days agoc3h59 C3H-transcription factor 59:
 
   Keli Xu et al. 2024. Genome-Wide Analysis of Maize ECT Family Members and Their Expressions in Response to Abiotic Stresses J Nucl Agric Sci. 38:1035-1047.     Reference: April 25th, 2024
Gene Product: November 14th, 2022
13 days agoect1 evolutionarily conserved C-terminal1:
 
   Keli Xu et al. 2024. Genome-Wide Analysis of Maize ECT Family Members and Their Expressions in Response to Abiotic Stresses J Nucl Agric Sci. 38:1035-1047.     Reference: April 25th, 2024
Gene Product: April 25th, 2024
13 days agoect2 evolutionarily conserved C-terminal2:
 
   Keli Xu et al. 2024. Genome-Wide Analysis of Maize ECT Family Members and Their Expressions in Response to Abiotic Stresses J Nucl Agric Sci. 38:1035-1047.     Reference: April 25th, 2024
Gene Product: April 25th, 2024
13 days agoect3 evolutionarily conserved C-terminal3:
 
   Keli Xu et al. 2024. Genome-Wide Analysis of Maize ECT Family Members and Their Expressions in Response to Abiotic Stresses J Nucl Agric Sci. 38:1035-1047.     Reference: April 25th, 2024
Gene Product: April 25th, 2024
13 days agoect5 evolutionarily conserved C-terminal5:
 
   Keli Xu et al. 2024. Genome-Wide Analysis of Maize ECT Family Members and Their Expressions in Response to Abiotic Stresses J Nucl Agric Sci. 38:1035-1047.     Reference: April 25th, 2024
Gene Product: April 25th, 2024
13 days agoect11 evolutionarily conserved C-terminal11:
 
   Keli Xu et al. 2024. Genome-Wide Analysis of Maize ECT Family Members and Their Expressions in Response to Abiotic Stresses J Nucl Agric Sci. 38:1035-1047.     Reference: April 25th, 2024
Gene Product: April 25th, 2024
13 days agoect19 evolutionarily conserved C-terminal19:
 
   Keli Xu et al. 2024. Genome-Wide Analysis of Maize ECT Family Members and Their Expressions in Response to Abiotic Stresses J Nucl Agric Sci. 38:1035-1047.     Reference: April 25th, 2024
Gene Product: April 25th, 2024
13 days agoect20 evolutionarily conserved C-terminal20:
 
   Keli Xu et al. 2024. Genome-Wide Analysis of Maize ECT Family Members and Their Expressions in Response to Abiotic Stresses J Nucl Agric Sci. 38:1035-1047.     Reference: April 25th, 2024
Gene Product: April 25th, 2024
13 days agoect22 evolutionarily conserved C-terminal22:
1.07
GRMZM2G025488
Keli Xu et al. 2024. Genome-Wide Analysis of Maize ECT Family Members and Their Expressions in Response to Abiotic Stresses J Nucl Agric Sci. 38:1035-1047.     Reference: April 25th, 2024
Gene Product: April 25th, 2024
Gene Model: September 6th, 2017
13 days agoect15 evolutionarily conserved C-terminal15:
4.04
GRMZM2G004997
Keli Xu et al. 2024. Genome-Wide Analysis of Maize ECT Family Members and Their Expressions in Response to Abiotic Stresses J Nucl Agric Sci. 38:1035-1047.     Reference: April 25th, 2024
Gene Product: April 25th, 2024
Gene Model: August 22nd, 2021
13 days agoect12 evolutionarily conserved C-terminal12:
1.10
GRMZM2G126338
Keli Xu et al. 2024. Genome-Wide Analysis of Maize ECT Family Members and Their Expressions in Response to Abiotic Stresses J Nucl Agric Sci. 38:1035-1047.     Reference: April 25th, 2024
Gene Product: April 25th, 2024
Variation: August 9th, 2021
Gene Model: August 9th, 2021
13 days agorp1 resistance to Puccinia sorghi1:
10.01
GRMZM2G069382
Jones, JDG et al. 2024. The plant immune system: From discovery to deployment Cell. 187:2095-2116.     Reference: April 25th, 2024
Gene Product: January 17th, 2022
Variation: April 1st, 2015
Gene Model: January 8th, 2018
13 days agoect13 evolutionarily conserved C-terminal13:
2.09
GRMZM2G340130
Keli Xu et al. 2024. Genome-Wide Analysis of Maize ECT Family Members and Their Expressions in Response to Abiotic Stresses J Nucl Agric Sci. 38:1035-1047.     Reference: April 25th, 2024
Gene Product: April 25th, 2024
Variation: November 26th, 2021
Gene Model: November 25th, 2021
13 days agomrp1 Myb related protein1:
8.05
   Gomez, E. 2002. Plant Cell 14:599-610     Reference: April 25th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
13 days agoect7 evolutionarily conserved C-terminal7:
7.01
GRMZM2G144726
Keli Xu et al. 2024. Genome-Wide Analysis of Maize ECT Family Members and Their Expressions in Response to Abiotic Stresses J Nucl Agric Sci. 38:1035-1047.     Reference: April 25th, 2024
Gene Product: April 25th, 2024
Variation: September 1st, 2003
Gene Model: September 4th, 2018
13 days agoocl3 outer cell layer3:
7.03
   Liang, ZJ et al. 2024. A combination of QTL mapping and genome-wide association study revealed the key gene for husk number in maize. Theor Appl Genet. 137:112.     Reference: April 25th, 2024
Gene Product: September 1st, 2003
Variation: February 23rd, 2013
13 days agoect14 evolutionarily conserved C-terminal14:
1.01
GRMZM2G076062
Keli Xu et al. 2024. Genome-Wide Analysis of Maize ECT Family Members and Their Expressions in Response to Abiotic Stresses J Nucl Agric Sci. 38:1035-1047.     Reference: April 25th, 2024
Gene Product: April 25th, 2024
Variation: February 1st, 2017
Gene Model: April 28th, 2016
13 days agoect18 evolutionarily conserved C-terminal18:
2.02
   Keli Xu et al. 2024. Genome-Wide Analysis of Maize ECT Family Members and Their Expressions in Response to Abiotic Stresses J Nucl Agric Sci. 38:1035-1047.     Reference: April 25th, 2024
Gene Product: April 25th, 2024
13 days agoect8 evolutionarily conserved C-terminal8:
4.05
GRMZM2G056573
Keli Xu et al. 2024. Genome-Wide Analysis of Maize ECT Family Members and Their Expressions in Response to Abiotic Stresses J Nucl Agric Sci. 38:1035-1047.     Reference: April 25th, 2024
Gene Product: April 25th, 2024
Gene Model: April 15th, 2020
13 days agoc3h63 C3H-transcription factor 63:
5.03
GRMZM2G126197
Keli Xu et al. 2024. Genome-Wide Analysis of Maize ECT Family Members and Their Expressions in Response to Abiotic Stresses J Nucl Agric Sci. 38:1035-1047.     Reference: April 25th, 2024
Gene Product: November 14th, 2022
Gene Model: May 13th, 2022
13 days agoect16 evolutionarily conserved C-terminal16:
6.00
GRMZM2G098174
Keli Xu et al. 2024. Genome-Wide Analysis of Maize ECT Family Members and Their Expressions in Response to Abiotic Stresses J Nucl Agric Sci. 38:1035-1047.     Reference: April 25th, 2024
Gene Product: April 25th, 2024
Gene Model: December 4th, 2019
13 days agoect4 evolutionarily conserved C-terminal4:
9.07
GRMZM2G330019
Keli Xu et al. 2024. Genome-Wide Analysis of Maize ECT Family Members and Their Expressions in Response to Abiotic Stresses J Nucl Agric Sci. 38:1035-1047.     Reference: April 25th, 2024
Gene Product: April 25th, 2024
Gene Model: September 10th, 2021
13 days agoetc9 evolutionarily conserved C-terminal9:
 
GRMZM2G303312
Keli Xu et al. 2024. Genome-Wide Analysis of Maize ECT Family Members and Their Expressions in Response to Abiotic Stresses J Nucl Agric Sci. 38:1035-1047.     Reference: April 25th, 2024
Gene Product: April 25th, 2024
Gene Model: March 22nd, 2021
15 days agoxth27 xyloglucan endotransglucosylase/hydrolase27:
 
   Yuanming Wu et al. 2024. Phenotypic Investigation and RNA-seq of KN1 Involved in Leaf Angle Formation in Maize (Zea mays L.) Int J Mol Sci. 25:3180.     Reference: April 23rd, 2024
Gene Product: March 23rd, 2024
15 days agotps28 terpene synthase28:
 
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: December 6th, 2023
15 days agoprh134 protein phosphatase homolog134:
 
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: October 25th, 2021
15 days agoGRMZM2G044049  :
 
   Ran Yang et al. 2024. ZmNAC17 Regulates Mesocotyl Elongation by Mediating Auxin and ROS Biosynthetic Pathways in Maize Int J Mol Sci. 25:4585.     Reference: April 23rd, 2024
Gene Product: September 18th, 2015
15 days agoGRMZM2G133434  :
 
   Ran Yang et al. 2024. ZmNAC17 Regulates Mesocotyl Elongation by Mediating Auxin and ROS Biosynthetic Pathways in Maize Int J Mol Sci. 25:4585.     Reference: April 23rd, 2024
Gene Product: September 18th, 2015
15 days agoGRMZM2G171078  :
 
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: September 18th, 2015
15 days agoGRMZM2G451097  :
 
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: September 18th, 2015
15 days agoGRMZM2G043855  :
 
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: September 18th, 2015
15 days agoGRMZM2G117365  :
 
   Ran Yang et al. 2024. ZmNAC17 Regulates Mesocotyl Elongation by Mediating Auxin and ROS Biosynthetic Pathways in Maize Int J Mol Sci. 25:4585.     Reference: April 23rd, 2024
Gene Product: September 18th, 2015
15 days agoGRMZM2G380247  :
 
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: September 18th, 2015
15 days agopx64 peroxidase64:
 
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: September 18th, 2015
15 days agotps20 terpene synthase20:
 
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: December 6th, 2023
15 days agoxth13 xyloglucan endotransglucosylase/hydrolase13:
 
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: March 23rd, 2024
15 days agobx4 benzoxazinone synthesis4:
4.01
GRMZM2G172491
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: October 24th, 2011
Variation: October 27th, 2011
Gene Model: October 24th, 2011
15 days agobsk3 brassinosteroid-signaling kinase3:
9.04
GRMZM2G054634
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: May 13th, 2014
Gene Model: September 9th, 2021
15 days agotraf21 TNF receptor-associated factor 21:
3.03
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: June 30th, 2021
Variation: May 11th, 2017
15 days agobzip129 bZIP-transcription factor 129:
2.06
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: August 21st, 2018
15 days agoprh111 protein phosphatase homolog111:
2.04
GRMZM2G015610
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: April 26th, 2021
15 days agosaur7 small auxin up RNA7:
1.07
GRMZM2G414727
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: November 26th, 2021
Gene Model: April 17th, 2021
15 days agopin9 PIN-formed protein9:
3.06
GRMZM5G859099
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: April 3rd, 2024
Gene Model: January 24th, 2013
15 days agod1 dwarf plant1:
3.03
GRMZM2G036340
Yuanming Wu et al. 2024. Phenotypic Investigation and RNA-seq of KN1 Involved in Leaf Angle Formation in Maize (Zea mays L.) Int J Mol Sci. 25:3180.     Reference: April 23rd, 2024
Gene Product: October 25th, 2014
Variation: October 30th, 2014
Gene Model: October 2nd, 2012
15 days agotps11 terpene synthase11:
10.03
GRMZM2G127087
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: September 3rd, 2008
Variation: September 3rd, 2008
Gene Model: August 22nd, 2012
15 days agolox10 lipoxygenase10:
4.09
GRMZM2G018424
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: January 3rd, 2018
Variation: February 28th, 2020
Gene Model: October 23rd, 2013
15 days agobzip7 bZIP-transcription factor 7:
7.03
GRMZM2G006578
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Variation: September 8th, 2018
Gene Model: September 8th, 2018
15 days agonactf36 NAC-transcription factor 36:
2.04
GRMZM2G081930
Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Variation: September 1st, 2003
Gene Model: February 15th, 2018
15 days agocko1 cytokinin oxidase1:
3.02
GRMZM2G146644
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: April 4th, 2014
Variation: September 1st, 2003
Gene Model: March 21st, 2014
15 days agoumc1151  :
5.03
GRMZM2G150893
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Variation: September 1st, 2003
Gene Model: March 12th, 2021
15 days agonactf43 NAC-transcription factor43:
1.05
GRMZM2G082709
Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Variation: September 1st, 2003
Gene Model: November 15th, 2016
15 days agocrr1 cytokinin response regulator1:
2.01 - 2.01
GRMZM2G040736
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: June 30th, 2017
Variation: August 5th, 2021
Gene Model: October 23rd, 2013
15 days agoabi16 ABI3-VP1-transcription factor 16:
 
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: January 29th, 2022
15 days agoabi28 ABI3-VP1-transcription factor 28:
 
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: January 29th, 2022
15 days agoarftf15 ARF-transcription factor 15:
 
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: January 29th, 2022
15 days agoarftf16 ARF-transcription factor 16:
 
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: January 29th, 2022
Variation: January 10th, 2020
15 days agoarftf28 ARF-transcription factor 28:
 
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: January 29th, 2022
Variation: September 6th, 2023
15 days agoarftf34 ARF-transcription factor 34:
 
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: January 29th, 2022
15 days agoarr7 ARR-B-transcription factor 7:
 
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: June 30th, 2017
15 days agonactf108 NAC-transcription factor 108:
 
   Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Gene Product: July 8th, 2019
Variation: May 4th, 2019
15 days agonactf11 NAC-transcription factor 11:
 
   Ran Yang et al. 2024. ZmNAC17 Regulates Mesocotyl Elongation by Mediating Auxin and ROS Biosynthetic Pathways in Maize Int J Mol Sci. 25:4585.     Reference: April 23rd, 2024
Variation: April 23rd, 2024
15 days agonactf127 NAC-transcription factor 127:
 
   Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Gene Product: December 12th, 2022
15 days agonactf129 NAC-transcription factor 129:
 
GRMZM2G027309
Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Gene Product: July 8th, 2019
Gene Model: July 2nd, 2019
15 days agonactf130 NAC-transcription factor 130:
 
   Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Gene Product: July 8th, 2019
15 days agonactf132 NAC-transcription factor 132:
 
   Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Gene Product: July 8th, 2019
Variation: March 3rd, 2017
15 days agonactf25 NAC-transcription factor 25:
 
   Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.   LOC_Os11g03300 (MSU/TIGR) Reference: April 23rd, 2024
Gene Product: July 8th, 2019
Variation: September 22nd, 2015
15 days agonactf46 NAC-transcription factor 46:
 
   Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Gene Product: July 8th, 2019
15 days agonactf6 NAC-transcription factor 6:
 
   Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Gene Product: July 8th, 2019
15 days agonactf60 NAC-transcription factor 60:
 
   Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Gene Product: July 8th, 2019
15 days agonactf69 NAC-transcription factor 69:
 
GRMZM2G027309
Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Gene Product: July 8th, 2019
Gene Model: July 6th, 2019
15 days agonactf70 NAC-transcription factor 70:
 
   Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Gene Product: July 8th, 2019
15 days agonactf78 NAC-transcription factor 78:
 
   Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Variation: December 7th, 2023
15 days agonactf8 NAC-transcription factor 8:
 
   Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Gene Product: July 8th, 2019
15 days agonactf82 NAC-transcription factor 82:
 
   Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Gene Product: July 8th, 2019
Variation: September 30th, 2018
15 days agonactf87 NAC-transcription factor 87:
 
   Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Gene Product: July 8th, 2019
15 days agonactf99 NAC-transcription factor 99:
 
GRMZM2G078954
Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Gene Product: July 8th, 2019
Gene Model: May 28th, 2019
15 days agozim15 ZIM-transcription factor 15:
 
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: February 24th, 2021
15 days agozim33 ZIM-transcription factor 33:
 
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: February 24th, 2021
15 days agobzip113 bZIP-transcription factor 113:
 
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Variation: April 25th, 2023
15 days agogar3 gibberellin responsive3:
8.05
GRMZM2G142705
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Variation: March 20th, 2021
Gene Model: January 22nd, 2016
15 days agoca2p6 CCAAT-HAP2-transcription factor 26:
1.08
GRMZM5G829103
Junqiao Song et al. 2024. Exploiting genomic tools for genetic dissection and improving the resistance to Fusarium stalk rot in tropical maize. Theor Appl Genet. 137:109.     Reference: April 23rd, 2024
Gene Product: August 9th, 2016
Variation: December 17th, 2016
Gene Model: December 17th, 2016
15 days agonactf53 NAC-transcription factor 53:
1.01
GRMZM2G059428
Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Variation: May 6th, 2016
Gene Model: May 6th, 2016
15 days agobhlh65 bHLH-transcription factor 65:
 
GRMZM2G387528
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.   AT1G09530 (TAIR)
LOC_Os05g04740 (MSU/TIGR)
Reference: April 23rd, 2024
Gene Product: September 14th, 2016
Variation: August 5th, 2022
Gene Model: May 26th, 2015
15 days agobnl13.05a  :
8.01
GRMZM2G041308
Ran Yang et al. 2024. ZmNAC17 Regulates Mesocotyl Elongation by Mediating Auxin and ROS Biosynthetic Pathways in Maize Int J Mol Sci. 25:4585.     Reference: April 23rd, 2024
Variation: September 1st, 2003
Gene Model: September 14th, 2018
15 days agobnl6.20  :
2.08
GRMZM2G056612
Yuanming Wu et al. 2024. Phenotypic Investigation and RNA-seq of KN1 Involved in Leaf Angle Formation in Maize (Zea mays L.) Int J Mol Sci. 25:3180.     Reference: April 23rd, 2024
Variation: September 1st, 2003
Gene Model: February 2nd, 2018
15 days agobx5 benzoxazinone synthesis5:
4.01
GRMZM2G063756
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: October 24th, 2011
Variation: October 27th, 2011
Gene Model: October 24th, 2011
15 days agonactf48 NAC-transcription factor 48:
1.06
GRMZM2G054252
Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Variation: January 27th, 2017
Gene Model: January 27th, 2017
15 days agocdj2 chaperone DNA J2:
1.09
   Junqiao Song et al. 2024. Exploiting genomic tools for genetic dissection and improving the resistance to Fusarium stalk rot in tropical maize. Theor Appl Genet. 137:109.     Reference: April 23rd, 2024
Gene Product: September 1st, 2003
Variation: September 29th, 2012
15 days agokrp2 kinesin-related protein2:
9.03
GRMZM2G136838
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: September 18th, 2023
Variation: January 4th, 2013
Gene Model: March 3rd, 2016
15 days agoufg71  :
9.03
GRMZM5G870176
Yuanming Wu et al. 2024. Phenotypic Investigation and RNA-seq of KN1 Involved in Leaf Angle Formation in Maize (Zea mays L.) Int J Mol Sci. 25:3180.     Reference: April 23rd, 2024
Gene Product: October 7th, 2016
Gene Model: October 12th, 2018
15 days agohk3 histidine kinase3:
5.03
GRMZM2G158252
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: May 20th, 2016
Variation: July 14th, 2008
Gene Model: April 25th, 2013
15 days agolox11 lipoxygenase11:
5.04
GRMZM2G009479
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: January 3rd, 2018
Variation: June 10th, 2014
Gene Model: June 10th, 2014
15 days agopox3 guaiacol peroxidase3:
6.05
GRMZM2G135108
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: September 1st, 2003
Variation: January 7th, 2016
Gene Model: February 9th, 2015
15 days agobrs1 brassinosteroid synthesis1:
1.03
GRMZM2G065635
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.   AT3G50660 (TAIR) Reference: April 23rd, 2024
Gene Product: September 20th, 2010
Variation: November 7th, 2013
Gene Model: October 3rd, 2012
15 days agoras18A1 ras-related protein18A1:
 
GRMZM2G176677
Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Variation: January 24th, 2011
Gene Model: July 22nd, 2014
15 days agonrp1 no-apical-meristem-related protein1:
 
GRMZM2G062650
Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Gene Product: July 8th, 2019
Variation: March 31st, 2011
Gene Model: July 28th, 2016
15 days agonced3 nine-cis-epoxycarotenoid dioxygenase3:
 
GRMZM5G858784
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: September 20th, 2012
Gene Model: September 20th, 2012
15 days agonced5 nine-cis-epoxycarotenoid dioxygenase5:
 
GRMZM2G417954
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: September 20th, 2012
Variation: September 1st, 2011
Gene Model: September 20th, 2012
15 days agodbp4 DRE-binding protein4:
 
GRMZM2G380377
Yuanming Wu et al. 2024. Phenotypic Investigation and RNA-seq of KN1 Involved in Leaf Angle Formation in Maize (Zea mays L.) Int J Mol Sci. 25:3180.     Reference: April 23rd, 2024
Gene Product: April 10th, 2013
Variation: April 10th, 2013
Gene Model: February 16th, 2012
15 days agobx12 benzoxazinone synthesis12:
 
GRMZM2G023325
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: July 8th, 2013
Variation: July 8th, 2013
Gene Model: July 8th, 2013
15 days agoelm2 elongated mesocotyl2:
 
GRMZM2G101004
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: September 24th, 2014
Variation: September 24th, 2014
Gene Model: November 18th, 2013
15 days agorca3 RUBISCO activase3:
 
GRMZM2G162282
Yuanming Wu et al. 2024. Phenotypic Investigation and RNA-seq of KN1 Involved in Leaf Angle Formation in Maize (Zea mays L.) Int J Mol Sci. 25:3180.     Reference: April 23rd, 2024
Gene Product: October 28th, 2014
Gene Model: February 11th, 2014
15 days agocko4b cytokinin oxidase4b:
 
GRMZM2G024476
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: July 19th, 2021
Gene Model: April 4th, 2014
15 days agoga2ox4 gibberellin 2-oxidase4:
 
GRMZM2G153359
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: October 27th, 2014
Gene Model: October 27th, 2014
15 days agoga16,17ox1 gibberellin 16,17-oxidase1:
 
GRMZM2G031432
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: October 30th, 2014
Gene Model: October 29th, 2014
15 days agopox1 guaiacol peroxidase1:
 
GRMZM2G104394
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: September 1st, 2003
Gene Model: February 9th, 2015
15 days agofnsi1 flavone synthase typeI1:
 
GRMZM2G099467
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.   AT5G24530 (TAIR) Reference: April 23rd, 2024
Gene Product: August 15th, 2015
Variation: August 14th, 2015
Gene Model: August 14th, 2015
15 days agofnsii1 flavone synthase typeII1:
 
GRMZM2G148441
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: August 14th, 2015
Gene Model: August 14th, 2015
15 days agofnsi2 flavone synthase typeI2:
 
GRMZM2G475380
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.   AT5G24530 (TAIR) Reference: April 23rd, 2024
Gene Product: August 15th, 2015
Gene Model: August 14th, 2015
15 days agoprx35 peroxidase35:
 
GRMZM2G177792
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: September 18th, 2015
Gene Model: September 18th, 2015
15 days agoprh90 protein phosphatase homolog90:
 
GRMZM2G443509
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: September 28th, 2016
15 days agoprh6 protein phosphatase homolog6:
 
GRMZM2G308615
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: October 18th, 2016
15 days agocyc11 cyclin11:
 
GRMZM2G161382
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: June 26th, 2009
Variation: May 2nd, 2021
Gene Model: December 21st, 2016
15 days agobrc2 brassinosteroid catabolism2:
 
GRMZM2G047684
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.   AT2G26710 (TAIR)
LOC_Os02g11020 (MSU/TIGR)
Reference: April 23rd, 2024
Gene Product: July 6th, 2017
Gene Model: July 6th, 2017
15 days agolox13 lipoxygenase13:
 
GRMZM5G822593
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: January 3rd, 2018
Gene Model: July 18th, 2017
15 days agoyuc9 yucca9:
 
GRMZM2G333478
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: June 18th, 2018
Gene Model: August 19th, 2017
15 days agonut1 necrotic upper tips1:
 
GRMZM2G041668
Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.   AT1G12260 (TAIR)
LOC_Os06g01480 (MSU/TIGR)
Reference: April 23rd, 2024
Gene Product: July 8th, 2019
Variation: August 11th, 2020
Gene Model: November 15th, 2017
15 days agovq10 VQ motif-transcription factor10:
 
GRMZM2G118172
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: August 31st, 2019
Gene Model: August 31st, 2019
15 days agovq14 VQ motif-transcription factor14:
 
GRMZM2G369742
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: August 31st, 2019
Gene Model: August 31st, 2019
15 days agovq21 VQ motif-transcription factor21:
 
AC194056.3_FG008
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: August 31st, 2019
Gene Model: August 31st, 2019
15 days agovq29 VQ motif-transcription factor29:
 
AC207043.3_FG002
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: August 31st, 2019
Gene Model: August 31st, 2019
15 days agovq35 VQ motif-transcription factor35:
 
GRMZM2G099691
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: August 31st, 2019
Gene Model: August 31st, 2019
15 days agovq41 VQ motif-transcription factor41:
 
GRMZM2G316033
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: August 31st, 2019
Gene Model: August 31st, 2019
15 days agovq53 VQ motif-transcription factor53:
 
GRMZM2G333049
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: August 31st, 2019
Gene Model: August 31st, 2019
15 days agovq56 VQ motif-transcription factor56:
 
GRMZM2G129815
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: August 31st, 2019
Gene Model: August 31st, 2019
15 days agovq58 VQ motif-transcription factor58:
 
GRMZM2G180262
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: August 31st, 2019
Gene Model: August 31st, 2019
15 days agoaas8 auxin amido synthetase8:
 
GRMZM2G053338
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: October 21st, 2019
Gene Model: October 21st, 2019
15 days agoaas2 auxin amido synthetase2:
 
GRMZM2G378106
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: October 21st, 2019
Gene Model: October 21st, 2019
15 days agoaas7 auxin amido synthetase7:
 
GRMZM2G033359
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: October 21st, 2019
Gene Model: October 21st, 2019
15 days agoprh81 protein phosphatase homolog81:
5.04
GRMZM2G360455
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: August 28th, 2021
15 days agopx16 peroxidase16:
 
GRMZM2G025441
Ran Yang et al. 2024. ZmNAC17 Regulates Mesocotyl Elongation by Mediating Auxin and ROS Biosynthetic Pathways in Maize Int J Mol Sci. 25:4585.     Reference: April 23rd, 2024
Gene Product: September 18th, 2015
Gene Model: July 9th, 2020
15 days agoapx7 ascorbate peroxidase7:
 
GRMZM2G083128
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: October 15th, 2020
Gene Model: October 15th, 2020
15 days agopx18 peroxidase18:
 
GRMZM2G108153
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: September 18th, 2015
Gene Model: November 23rd, 2020
15 days agopx19 peroxidase19:
 
GRMZM2G107228
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: September 18th, 2015
Gene Model: January 18th, 2021
15 days agobsk2 brassinosteroid-signaling kinase2:
 
GRMZM2G169080
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: May 13th, 2014
Gene Model: April 20th, 2021
15 days agoebf2 EIN3-binding F-box protein2:
 
GRMZM2G069649
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: April 27th, 2022
Gene Model: June 25th, 2021
15 days agopx21 peroxidase21:
 
AC205413.4_FG001
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: September 18th, 2015
Gene Model: September 8th, 2021
15 days agoprh127 protein phosphatase homolog127:
 
GRMZM2G057907
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
15 days agosaur8 small auxin up RNA8:
 
GRMZM2G033871
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: November 26th, 2021
Gene Model: November 26th, 2021
15 days agosaur10 small auxin up RNA10:
 
GRMZM2G407969
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: November 26th, 2021
Gene Model: November 26th, 2021
15 days agosaur11 small auxin up RNA11:
 
GRMZM2G146108
Ran Yang et al. 2024. ZmNAC17 Regulates Mesocotyl Elongation by Mediating Auxin and ROS Biosynthetic Pathways in Maize Int J Mol Sci. 25:4585.     Reference: April 23rd, 2024
Gene Product: November 26th, 2021
Gene Model: November 26th, 2021
15 days agosaur36 small auxin up RNA36:
 
GRMZM2G107900
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: November 26th, 2021
Gene Model: November 26th, 2021
15 days agosaur49 small auxin up RNA49:
 
GRMZM2G113135
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: November 26th, 2021
Gene Model: November 26th, 2021
15 days agosaur54 small auxin up RNA54:
 
GRMZM2G312274
Ran Yang et al. 2024. ZmNAC17 Regulates Mesocotyl Elongation by Mediating Auxin and ROS Biosynthetic Pathways in Maize Int J Mol Sci. 25:4585.     Reference: April 23rd, 2024
Gene Product: November 26th, 2021
Gene Model: November 26th, 2021
15 days agosaur55 small auxin up RNA55:
 
GRMZM2G391596
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: November 26th, 2021
Gene Model: November 26th, 2021
15 days agosaur73 small auxin up RNA73:
 
GRMZM2G083980
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: November 26th, 2021
Gene Model: November 26th, 2021
15 days agopx23 peroxidase23:
 
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.   AT5G05340 (TAIR) Reference: April 23rd, 2024
Gene Product: September 18th, 2015
15 days agoprx12 peroxidase12:
 
GRMZM2G108207
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: September 18th, 2015
Gene Model: January 13th, 2022
15 days agoxth5 xyloglucan endo-transglycosylase/hydrolase5:
5.03
GRMZM2G413006
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: March 23rd, 2024
Gene Model: May 10th, 2020
15 days agocrr9 cytokinin response regulator9:
 
GRMZM2G129954
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: June 30th, 2017
Gene Model: August 12th, 2022
15 days agopin2 PIN-formed protein2:
5.06
GRMZM2G074267
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: April 21st, 2014
Variation: June 11th, 2007
Gene Model: June 7th, 2012
15 days agosamt1 S-adenosyl methionine transporter1:
5.07
GRMZM2G042027
Junqiao Song et al. 2024. Exploiting genomic tools for genetic dissection and improving the resistance to Fusarium stalk rot in tropical maize. Theor Appl Genet. 137:109.     Reference: April 23rd, 2024
Gene Product: June 6th, 2022
Gene Model: May 23rd, 2020
15 days agoebf1 EIN3-binding F-box protein1:
6.03
GRMZM2G137582
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.   AT2G25490 (TAIR)
LOC_Os06g40360 (MSU/TIGR)
Reference: April 23rd, 2024
Gene Product: April 27th, 2022
Gene Model: October 6th, 2016
15 days agopin1 PIN-formed protein1:
9.01
GRMZM2G098643
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: April 21st, 2014
Variation: January 20th, 2015
Gene Model: January 24th, 2013
15 days agosnrkII5 SnRK2 serine threonine kinase5:
10.07
GRMZM2G110908
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: April 14th, 2018
Gene Model: February 11th, 2015
15 days agoein2 ethylene insensitive 2:
3.01
GRMZM2G068217
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.   AT5G03280 (TAIR) Reference: April 23rd, 2024
Variation: March 6th, 2024
Gene Model: March 1st, 2015
15 days agonactf23 NAC-transcription factor 23:
8.08
GRMZM2G068973
Fan, K et al. 2014. Molecular evolution and expansion analysis of the NAC transcription factor in Zea mays. PLoS One. 9:e111837.     Reference: April 23rd, 2024
Variation: March 31st, 2005
Gene Model: June 14th, 2019
15 days agocko2 cytokinin oxidase 2:
3.05
GRMZM2G050997
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: July 19th, 2021
Variation: February 26th, 2008
Gene Model: March 21st, 2014
15 days agobx6 benzoxazinone synthesis6:
4.01
   Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: June 20th, 2016
Variation: April 12th, 2019
15 days agopx5 peroxidase 5:
6.05
GRMZM2G450233
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: September 18th, 2015
Gene Model: December 30th, 2015
15 days agosnrkII7 SnRK2 serine threonine protein kinase7:
2.04
GRMZM2G155593
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: April 14th, 2018
Gene Model: February 11th, 2015
15 days agozim18 ZIM-transcription factor 18:
1.08
GRMZM2G145412
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: February 24th, 2021
Gene Model: December 6th, 2016
15 days agoks3 kaurene synthase3:
2.02
GRMZM2G093603
Liu, LJ et al. 2024. Genome-wide identification of ZmMYC2 binding sites and target genes in maize BMC Genomics. 25:397.     Reference: April 23rd, 2024
Gene Product: August 16th, 2012
Variation: July 22nd, 2023
Gene Model: August 15th, 2012
16 days agobif4 barren inflorescence4:
 
   Liu, JQ et al. 2024. Overexpression of the late embryonic genesis abundant protein MGL3 improves the drought tolerance of maize (Zea mays L.) Crop Sci. :doi: 10.1002/csc2.21246.     Reference: April 22nd, 2024
Gene Product: October 16th, 2015
Variation: October 16th, 2015
16 days agowrky92 WRKY-transcription factor 92:
 
   Begcy, K et al. 2024. Maize stigmas react differently to self-/cross-pollination and fungal invasion bioRxiv preprint. :doi: 10.1101/2024.04.17.589941.     Reference: April 22nd, 2024
Variation: February 7th, 2024
16 days agomlg3 lea protein group3:
6.07
   Liu, JQ et al. 2024. Overexpression of the late embryonic genesis abundant protein MGL3 improves the drought tolerance of maize (Zea mays L.) Crop Sci. :doi: 10.1002/csc2.21246.     Reference: April 22nd, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
16 days agoks2 kaurene synthase2:
 
GRMZM2G093526
Begcy, K et al. 2024. Maize stigmas react differently to self-/cross-pollination and fungal invasion bioRxiv preprint. :doi: 10.1101/2024.04.17.589941.     Reference: April 22nd, 2024
Gene Product: August 16th, 2012
Gene Model: October 27th, 2014
16 days agoks5 kaurene synthase5:
 
   Begcy, K et al. 2024. Maize stigmas react differently to self-/cross-pollination and fungal invasion bioRxiv preprint. :doi: 10.1101/2024.04.17.589941.     Reference: April 22nd, 2024
Gene Product: August 16th, 2012
16 days agoko1 kaurene oxidase1:
 
GRMZM2G059308
Begcy, K et al. 2024. Maize stigmas react differently to self-/cross-pollination and fungal invasion bioRxiv preprint. :doi: 10.1101/2024.04.17.589941.     Reference: April 22nd, 2024
Gene Product: October 27th, 2014
Gene Model: October 27th, 2014
16 days agocyp30 cytochrome P450 CYP71Z16:
 
   Begcy, K et al. 2024. Maize stigmas react differently to self-/cross-pollination and fungal invasion bioRxiv preprint. :doi: 10.1101/2024.04.17.589941.     Reference: April 22nd, 2024
Gene Product: December 30th, 2022
16 days agoers14 ethylene receptor1-14:
5.01
GRMZM2G102601
Liu, JQ et al. 2024. Overexpression of the late embryonic genesis abundant protein MGL3 improves the drought tolerance of maize (Zea mays L.) Crop Sci. :doi: 10.1002/csc2.21246.     Reference: April 22nd, 2024
Variation: May 16th, 2014
Gene Model: December 28th, 2016
16 days agotps6 terpene synthase6:
10.03
GRMZM2G127087
Begcy, K et al. 2024. Maize stigmas react differently to self-/cross-pollination and fungal invasion bioRxiv preprint. :doi: 10.1101/2024.04.17.589941.     Reference: April 22nd, 2024
Gene Product: September 3rd, 2008
Variation: May 28th, 2012
Gene Model: May 28th, 2012
17 days agosnrk1a1 SNF1-related kinase alpha1-like1:
6.06
GRMZM2G105401
Lily Chen et al. 2024. Sugar sensing in C4 source leaves: a gap that needs to be filled. J Exp Bot. :doi: 10.1093/jxb/erae166.     Reference: April 21st, 2024
Gene Product: December 4th, 2020
Gene Model: February 7th, 2018
18 days agolbd51 LBD-transcription factor 51:
 
   Hao, LD et al. 2024. Characterization and expression profiles of the ZmLBD gene family in Zea mays. Mol Biol Rep. 51:554.     Reference: April 20th, 2024
Gene Product: July 28th, 2023
18 days agortcs1 rootless concerning crown and seminal roots1:
1.02
GRMZM2G092542
Hao, LD et al. 2024. Characterization and expression profiles of the ZmLBD gene family in Zea mays. Mol Biol Rep. 51:554.     Reference: April 20th, 2024
Gene Product: October 5th, 2009
Variation: October 5th, 2009
Gene Model: July 23rd, 2013
18 days agoial1 ig1-as2 like1:
8.06
GRMZM2G133806
Hao, LD et al. 2024. Characterization and expression profiles of the ZmLBD gene family in Zea mays. Mol Biol Rep. 51:554.     Reference: April 20th, 2024
Gene Product: July 28th, 2023
Variation: October 1st, 2010
Gene Model: October 9th, 2015
18 days agoms1 male sterile1:
6.02
   Hao, LD et al. 2024. Characterization and expression profiles of the ZmLBD gene family in Zea mays. Mol Biol Rep. 51:554.     Reference: April 20th, 2024
Gene Product: July 28th, 2023
Variation: May 19th, 2006
18 days agora2 ramosa2:
3.03 - 3.03
AC233943.1_FG002
Hao, LD et al. 2024. Characterization and expression profiles of the ZmLBD gene family in Zea mays. Mol Biol Rep. 51:554.   AT5G63090 (TAIR)
LOC_Os01g07480 (MSU/TIGR)
Os01g0169400 (Gramene)
Reference: April 20th, 2024
Gene Product: July 27th, 2009
Variation: September 19th, 2009
Gene Model: July 14th, 2011
18 days agolbd1 LBD-transcription factor 1:
 
   Hao, LD et al. 2024. Characterization and expression profiles of the ZmLBD gene family in Zea mays. Mol Biol Rep. 51:554.     Reference: April 20th, 2024
Variation: March 18th, 2021
18 days agortcl1 RTCS-like1:
9.07
AC149818.2_FG009
Hao, LD et al. 2024. Characterization and expression profiles of the ZmLBD gene family in Zea mays. Mol Biol Rep. 51:554.     Reference: April 20th, 2024
Variation: January 20th, 2016
Gene Model: May 18th, 2012
19 days agorap2 rap2.7 orthologue:
8.06
GRMZM2G700665
Adak, A et al. 2024. Photoperiod associated late flowering reaction norm: Dissecting loci and genomic-enviromic associated prediction in maize Field Crop Res. 311:109380.     Reference: April 19th, 2024
Gene Product: July 5th, 2019
Variation: July 24th, 2019
Gene Model: November 20th, 2012
19 days agopebp5 phosphatidylethanolamine-binding protein:
 
   Adak, A et al. 2024. Photoperiod associated late flowering reaction norm: Dissecting loci and genomic-enviromic associated prediction in maize Field Crop Res. 311:109380.     Reference: April 19th, 2024
Gene Product: March 19th, 2024
Variation: January 31st, 2011
19 days agopebp8 phosphatidylethanolamine-binding protein8:
 
GRMZM2G179264
Adak, A et al. 2024. Photoperiod associated late flowering reaction norm: Dissecting loci and genomic-enviromic associated prediction in maize Field Crop Res. 311:109380.     Reference: April 19th, 2024
Gene Product: March 19th, 2024
Variation: June 19th, 2015
Gene Model: May 6th, 2011
19 days agopebp19 phosphatidylethanolamine-binding protein:
 
   Adak, A et al. 2024. Photoperiod associated late flowering reaction norm: Dissecting loci and genomic-enviromic associated prediction in maize Field Crop Res. 311:109380.     Reference: April 19th, 2024
Gene Product: March 19th, 2024
Variation: December 15th, 2010
19 days agoid1 indeterminate growth1:
1.08
   Adak, A et al. 2024. Photoperiod associated late flowering reaction norm: Dissecting loci and genomic-enviromic associated prediction in maize Field Crop Res. 311:109380.     Reference: April 19th, 2024
Gene Product: January 3rd, 2015
Variation: March 22nd, 2023
19 days agocct1 CO CO-LIKE TIMING OF CAB1 protein domain1:
 
GRMZM2G381691
Adak, A et al. 2024. Photoperiod associated late flowering reaction norm: Dissecting loci and genomic-enviromic associated prediction in maize Field Crop Res. 311:109380.   AT5G24930 (TAIR)
LOC_Os07g15770 (MSU/TIGR)
Os07g0261200 (Gramene)
Reference: April 19th, 2024
Gene Product: June 18th, 2018
Variation: May 22nd, 2021
Gene Model: July 17th, 2012
19 days agoereb100 AP2-EREBP-transcription factor 100:
 
   Hongpeng Han et al. 2024. Function analysis of transcription factor OSR1 regulating osmotic stress resistance in maize Biochem Biophys Res Commun. :doi: 10.1016/j.bbrc.2024.149956.     Reference: April 19th, 2024
Variation: April 19th, 2024
19 days agomads69 MADS-transcription factor 69:
 
   Adak, A et al. 2024. Photoperiod associated late flowering reaction norm: Dissecting loci and genomic-enviromic associated prediction in maize Field Crop Res. 311:109380.     Reference: April 19th, 2024
Variation: October 5th, 2018
19 days agoconz1 constans1:
9.03
   Adak, A et al. 2024. Photoperiod associated late flowering reaction norm: Dissecting loci and genomic-enviromic associated prediction in maize Field Crop Res. 311:109380.     Reference: April 19th, 2024
Gene Product: June 18th, 2018
Variation: July 28th, 2008
20 days agoubi1 ubiquitin1:
 
GRMZM2G409726
Wang, X et al. 2024. Jasmonate mimic modulates cell elongation by regulating antagonistic bHLH transcription factors via brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae217.     Reference: April 18th, 2024
Gene Product: September 1st, 2003
Variation: November 20th, 2014
Gene Model: November 18th, 2014
20 days agobhlh86 bHLH-transcription factor 86:
7.03
GRMZM5G818643
Wang, X et al. 2024. Jasmonate mimic modulates cell elongation by regulating antagonistic bHLH transcription factors via brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae217.     Reference: April 18th, 2024
Variation: September 1st, 2003
Gene Model: September 2nd, 2018
20 days agobhlh3 bHLH-transcription factor 3:
1.03
GRMZM2G180452
Wang, X et al. 2024. Jasmonate mimic modulates cell elongation by regulating antagonistic bHLH transcription factors via brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae217.     Reference: April 18th, 2024
Variation: January 31st, 2017
Gene Model: January 31st, 2017
20 days agomyc7 myc transcription factor7:
1.05
GRMZM2G001930
Wang, X et al. 2024. Jasmonate mimic modulates cell elongation by regulating antagonistic bHLH transcription factors via brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae217.     Reference: April 18th, 2024
Gene Product: September 14th, 2016
Variation: June 20th, 2022
Gene Model: July 28th, 2016
20 days agoibh1 increased leaf inclination1-binding bhlh 1:
 
GRMZM2G388823
Wang, X et al. 2024. Jasmonate mimic modulates cell elongation by regulating antagonistic bHLH transcription factors via brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae217.   AT2G43060 (TAIR) Reference: April 18th, 2024
Gene Product: September 14th, 2016
Variation: January 28th, 2020
Gene Model: January 28th, 2020
20 days agoxth1 xyloglucan endo-transglycosylase/hydrolase1:
10.03
GRMZM2G119783
Wang, X et al. 2024. Jasmonate mimic modulates cell elongation by regulating antagonistic bHLH transcription factors via brassinosteroid signaling Plant Physiol. :doi: 10.1093/plphys/kiae217.     Reference: April 18th, 2024
Gene Product: March 23rd, 2024
Variation: January 25th, 2015
Gene Model: September 5th, 2012
21 days agoshki1 shikimate kinase1:
 
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.   AT2G21940 (TAIR) Reference: April 17th, 2024
Gene Product: January 2nd, 2023
21 days agoskl1 shikimate kinase-like1:
 
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.   AT3G26900 (TAIR) Reference: April 17th, 2024
Gene Product: January 2nd, 2023
21 days agoshki2 shikimate kinase2:
 
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.   AT2G21940 (TAIR) Reference: April 17th, 2024
Gene Product: January 2nd, 2023
21 days agoadt3 arogenate dehydratase3:
 
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: March 4th, 2024
21 days agome10 malic enzyme10:
 
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: June 27th, 2019
21 days agogtr2 glutamyl-tRNA reductase2:
 
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: October 23rd, 2023
21 days agoadt1 arogenate dehydratase1:
 
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: March 4th, 2024
21 days agoadt5 arogenate dehydratase5:
 
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: March 4th, 2024
21 days agoadt7 arogenate dehydratase7:
 
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: March 4th, 2024
21 days agoZm00001d053374  :
 
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: April 17th, 2024
21 days agoLOC100274239  :
 
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: April 17th, 2024
21 days agogtr1 glutamyl-tRNA reductase1:
10.07
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: October 23rd, 2023
Variation: October 23rd, 2023
21 days agompec1 magnesium-protoporphyrin ester cyclase1:
8.01
GRMZM2G081462
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.   AT3G56940 (TAIR) Reference: April 17th, 2024
Gene Product: July 7th, 2022
Variation: July 7th, 2022
Gene Model: September 13th, 2018
21 days agogln6 glutamine synthetase6:
1.02 - 1.03
GRMZM2G050514
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: December 7th, 2012
Gene Model: August 7th, 2014
21 days agoarodh3 arogenate dehydrogenase3:
6.01
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: July 7th, 2018
Variation: July 7th, 2018
21 days agopat38 protein S-acyltransferase38:
10.07
GRMZM2G092571
Lin, M et al. 2024. Integrative multi-omic analysis identifies genes associated with cuticular wax biogenesis in adult maize leaves bioRxiv preprint. :doi: 10.1101/2024.04.09.588685.     Reference: April 17th, 2024
Gene Product: February 26th, 2022
Gene Model: July 21st, 2021
21 days agoeps1 enolpyruvylshikimate phosphate synthase1:
9.07
GRMZM5G877500
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: April 18th, 2020
Variation: November 15th, 2018
Gene Model: July 27th, 2016
21 days agobx1 benzoxazinless1:
4.00
GRMZM2G085381
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: October 14th, 2011
Variation: April 12th, 2019
Gene Model: October 14th, 2011
21 days agogdh1 glutamic dehydrogenase1:
1.11
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: August 7th, 2006
21 days agogot1 glutamate-oxaloacetate transaminase1:
3.02
GRMZM2G094712
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: October 21st, 2021
Variation: September 1st, 2003
Gene Model: August 6th, 2014
21 days agogot2 glutamate-oxaloacetate transaminase2:
5.08
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: October 21st, 2021
Variation: September 1st, 2003
21 days agogot3 glutamate-oxaloacetic transaminase3:
5.03 - 5.04
GRMZM2G146677
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: October 21st, 2021
Variation: September 1st, 2003
Gene Model: July 30th, 2014
21 days agolls1 lethal leaf spot1:
1.01
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: November 5th, 2014
Variation: March 18th, 2022
21 days agonec4 necrotic4:
2.02
GRMZM5G870342
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: December 17th, 2014
Variation: January 31st, 2022
Gene Model: December 17th, 2014
21 days agoorp1 orange pericarp1:
4.05
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: May 19th, 2006
21 days agoorp2 orange pericarp2:
10.03
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
21 days agopep1 phosphoenolpyruvate carboxylase1:
9.03
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: May 27th, 2020
21 days agopep3 phosphoenolpyruvate carboxylase3:
4.08
GRMZM2G074122
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: April 10th, 2015
Gene Model: August 13th, 2014
21 days agorf2 restorer of fertility2:
9.03
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: December 18th, 2006
21 days agosad1 shikimate dehydrogenase1:
10.03 - 10.04
GRMZM2G014376
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: January 24th, 2015
Gene Model: January 24th, 2015
21 days agots2 tassel seed2:
1.03
   Taikui Zhang et al. 2024. Phylogenomic profiles of whole-genome duplications in Poaceae and landscape of differential duplicate retention and losses among major Poaceae lineages Nat Commun. 15:3305.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
21 days agome5 malic enzyme5:
6.05
GRMZM5G886257
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: June 27th, 2019
Variation: August 16th, 2011
Gene Model: August 27th, 2018
21 days agofnr2 ferredoxin NADP reductase2:
7.01
GRMZM2G011858
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: May 11th, 2021
Variation: October 9th, 2009
Gene Model: September 4th, 2018
21 days agopsan1 photosystem I N subunit1:
3.05
GRMZM2G080107
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: May 12th, 2013
Gene Model: May 9th, 2013
21 days agopsah1 photosystem I H subunit1:
6.07
GRMZM2G451224
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: May 7th, 2013
Gene Model: May 9th, 2013
21 days agocpx2 coproporphyrinogen III oxidase2:
10.06
GRMZM2G032282
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: December 17th, 2014
Variation: September 22nd, 2011
Gene Model: September 22nd, 2011
21 days agoles22 lesion22:
1.04
GRMZM2G044074
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: April 1st, 2015
Gene Model: August 16th, 2017
21 days agoadc1 arginine decarboxylase1:
9.03
GRMZM2G396553
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: August 18th, 2020
Variation: September 1st, 2003
Gene Model: March 7th, 2018
21 days agopal1 phenylalanine ammonia lyase homolog1:
5.05
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: August 13th, 2022
Variation: September 24th, 2014
21 days agopal2 phenylalanine ammonia lyase2:
2.04 - 2.04
GRMZM2G441347
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: February 21st, 2017
Gene Model: February 21st, 2017
21 days agonnr2 nitrate reductase2:
5.07
GRMZM5G878558
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: October 26th, 2010
Gene Model: May 10th, 2018
21 days agonnr1 nitrate reductase(NADH)1:
4.05
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: October 26th, 2010
21 days agoabi12 ABI3-VP1-transcription factor 12:
 
   Taikui Zhang et al. 2024. Phylogenomic profiles of whole-genome duplications in Poaceae and landscape of differential duplicate retention and losses among major Poaceae lineages Nat Commun. 15:3305.     Reference: April 17th, 2024
Gene Product: January 29th, 2022
Variation: September 20th, 2019
21 days agomdh6 malate dehydrogenase6:
1.07
GRMZM2G129513
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 23rd, 2014
Variation: August 31st, 2010
Gene Model: October 24th, 2013
21 days agome3 NADP malic enzyme3:
3.02
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: June 27th, 2019
Variation: September 1st, 2003
21 days agopep4 phosphoenolpyruvate carboxylase4:
7.02
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: December 27th, 2010
21 days agodvr1 divinyl reductase1:
 
GRMZM2G063048
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: October 8th, 2014
Gene Model: October 8th, 2014
21 days agopal3 phenylalanine ammonia lyase3:
4.05
GRMZM2G160541
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: September 25th, 2014
Gene Model: September 19th, 2014
21 days agopsan2 photosystem I N subunit2:
10.03
GRMZM2G009048
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Gene Model: January 10th, 2018
21 days agome2 NADP-dependent malic enzyme2:
6.05
GRMZM2G122479
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: June 27th, 2019
Variation: August 24th, 2014
Gene Model: August 21st, 2014
21 days agogln3 glutamine synthetase3:
9.06
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: December 7th, 2012
21 days agogln4 glutamine synthetase4:
5.06
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
21 days agogln5 glutamine synthetase5:
4.06
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: May 30th, 2014
21 days agogln1 glutamine synthetase1:
10.07
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
21 days agopep2 phosphoenolpyruvate carboxylase2:
5.04
GRMZM2G069542
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: October 1st, 2014
Gene Model: August 13th, 2014
21 days agoris2 iron-sulfur protein2:
4.09
GRMZM2G162748
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: November 5th, 2014
Variation: November 1st, 2014
Gene Model: October 31st, 2014
21 days agoris1 iron-sulfur protein1:
5.04
GRMZM2G162748
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: November 5th, 2014
Variation: October 31st, 2014
Gene Model: October 31st, 2014
21 days agonii2 nitrite reductase2:
4.07
GRMZM2G079381
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: September 10th, 2014
21 days agofie1 fertilization independent endosperm1:
4.05
   Taikui Zhang et al. 2024. Phylogenomic profiles of whole-genome duplications in Poaceae and landscape of differential duplicate retention and losses among major Poaceae lineages Nat Commun. 15:3305.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: December 4th, 2012
21 days agofie2 fertilization independent endosperm2:
10.03
   Taikui Zhang et al. 2024. Phylogenomic profiles of whole-genome duplications in Poaceae and landscape of differential duplicate retention and losses among major Poaceae lineages Nat Commun. 15:3305.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: May 27th, 2014
21 days agoasn1 asparagine synthetase1:
1.03
GRMZM2G074589
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: February 1st, 2021
Variation: May 9th, 2009
Gene Model: December 30th, 2015
21 days agocmu1 chorismate mutase1:
8.08
GRMZM2G116087
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: February 12th, 2014
Gene Model: February 12th, 2014
21 days agogl26 glossy26:
8.02
GRMZM2G481843
Lin, M et al. 2024. Integrative multi-omic analysis identifies genes associated with cuticular wax biogenesis in adult maize leaves bioRxiv preprint. :doi: 10.1101/2024.04.09.588685.     Reference: April 17th, 2024
Gene Product: October 31st, 2018
Variation: October 31st, 2018
Gene Model: September 17th, 2018
21 days agoadc2 arginine decarboxylase2:
4.06
   Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: August 18th, 2020
Variation: January 22nd, 2021
21 days agocer8 eceriferum8:
10.03
GRMZM2G101875
Lin, M et al. 2024. Integrative multi-omic analysis identifies genes associated with cuticular wax biogenesis in adult maize leaves bioRxiv preprint. :doi: 10.1101/2024.04.09.588685.   AT2G47240 (TAIR) Reference: April 17th, 2024
Gene Product: October 31st, 2018
Variation: October 31st, 2018
Gene Model: January 23rd, 2018
21 days agoasn2 asparagine synthetase2:
3.09
GRMZM2G093175
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: February 1st, 2021
Variation: December 30th, 2015
Gene Model: December 30th, 2015
21 days agoasn3 asparagine synthetase3:
1.03
GRMZM2G053669
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: February 1st, 2021
Variation: May 9th, 2009
Gene Model: October 16th, 2015
21 days agoasn4 asparagine synthetase4:
9.06
GRMZM2G078472
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: February 1st, 2021
Variation: November 16th, 2022
Gene Model: December 30th, 2015
21 days agoalgt1 alanine--glyoxylate aminotransferase1:
1.04
GRMZM2G030571
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: July 25th, 2014
Gene Model: July 25th, 2014
21 days agogot5 glutamate-oxaloacetate transaminase5:
 
GRMZM2G033799
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: October 21st, 2021
Gene Model: August 4th, 2014
21 days agogot4 glutamate-oxaloacetate transaminase4:
 
GRMZM2G400604
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: October 21st, 2021
Variation: August 8th, 2014
Gene Model: August 5th, 2014
21 days agochph1 chlorophyllase1:
 
GRMZM2G170734
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: August 5th, 2016
Gene Model: October 4th, 2014
21 days agopdk3 phosphoinositide dependent protein kinase3:
 
GRMZM2G097821
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: April 18th, 2015
Gene Model: April 18th, 2015
21 days agocyb6 cytochrome b6:
 
GRMZM2G463640
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Gene Model: April 18th, 2015
21 days agopdk4 pyruvate, orthophosphate dikinase4:
 
AC217975.3_FG001
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: July 28th, 2014
Gene Model: April 18th, 2015
21 days agoadt6 arogenate dehydratase6:
 
GRMZM2G437912
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.   AT1G08250 (TAIR) Reference: April 17th, 2024
Gene Product: March 4th, 2024
Gene Model: March 24th, 2016
21 days agopal7 phenylalanine ammonia lyase7:
 
GRMZM2G170692
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: August 13th, 2022
Gene Model: May 6th, 2016
21 days agopal9 phenylalanine ammonia lyase9:
 
GRMZM2G029048
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: August 13th, 2022
Gene Model: May 6th, 2016
21 days agopal6 phenylalanine ammonia lyase6:
 
GRMZM2G118345
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: August 13th, 2022
Gene Model: May 6th, 2016
21 days agopal5 phenylalanine ammonia lyase5:
 
GRMZM2G081582
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: August 13th, 2022
Gene Model: May 6th, 2016
21 days agopal4 phenylalanine ammonia lyase4:
 
GRMZM2G063917
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: August 13th, 2022
Gene Model: May 6th, 2016
21 days agoacs3 1-aminocyclopropane-1-carboxylate synthase3:
 
GRMZM2G018006
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: May 16th, 2016
Gene Model: May 16th, 2016
21 days agochph2 chlorophyllase2:
 
GRMZM2G127421
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: August 5th, 2016
Variation: August 5th, 2016
Gene Model: August 5th, 2016
21 days agoarodh1 arogenate dehydrogenase1:
 
GRMZM2G084942
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: July 7th, 2018
Variation: July 7th, 2018
Gene Model: October 4th, 2017
21 days agopcr2 protochlorophyllide reductase2:
 
GRMZM2G036455
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: June 8th, 2019
Gene Model: October 4th, 2017
21 days agopcr3 protochlorophyllide reductase3:
 
GRMZM2G073351
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: June 8th, 2019
Variation: June 8th, 2019
Gene Model: October 4th, 2017
21 days agochlg1 chlorophyll synthase G1:
 
GRMZM2G162672
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: January 8th, 2018
Gene Model: January 8th, 2018
21 days agonnr5 nitrate reductase5:
 
GRMZM2G428027
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Gene Model: May 10th, 2018
21 days agonnr4 nitrate reductase4:
 
GRMZM2G076723
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: December 13th, 2021
Gene Model: May 10th, 2018
21 days agonii1 nitrate reductase1:
 
GRMZM2G102959
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Gene Model: May 10th, 2018
21 days agoarodh2 arogenate dehydrogenase2:
 
GRMZM2G085117
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: July 7th, 2018
Gene Model: July 7th, 2018
21 days agoarodh4 arogenate dehydrogenase4:
 
GRMZM2G324297
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: July 7th, 2018
Gene Model: July 7th, 2018
21 days agogl4b 3-ketoacyl-CoA synthase gl4b:
 
GRMZM2G478140
Lin, M et al. 2024. Integrative multi-omic analysis identifies genes associated with cuticular wax biogenesis in adult maize leaves bioRxiv preprint. :doi: 10.1101/2024.04.09.588685.     Reference: April 17th, 2024
Gene Product: November 1st, 2018
Gene Model: November 1st, 2018
21 days agocmu3 chorismate mutase3:
 
GRMZM2G028369
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: February 12th, 2014
Gene Model: January 21st, 2019
21 days agokcs22 3-ketoacyl-CoA synthase22:
 
GRMZM2G168956
Lin, M et al. 2024. Integrative multi-omic analysis identifies genes associated with cuticular wax biogenesis in adult maize leaves bioRxiv preprint. :doi: 10.1101/2024.04.09.588685.     Reference: April 17th, 2024
Gene Product: November 1st, 2018
Gene Model: February 13th, 2020
21 days agoptox2 plastid terminal oxidase2:
 
GRMZM2G010555
Nie, Y-X et al. 2024. The maize PLASTID TERMINAL OXIDASE (PTOX) locus controls the carotenoid content of kernels Plant J. 118(2) 457-468     Reference: April 17th, 2024
Gene Product: June 15th, 2023
Gene Model: April 27th, 2020
21 days agophao1 pheophorbide a oxygenase1:
 
GRMZM2G171390
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: August 26th, 2020
Gene Model: August 26th, 2020
21 days agochao1 chlorophyllide a oxygenase1:
 
GRMZM2G103197
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: February 12th, 2021
Gene Model: August 26th, 2020
21 days agocmu4 chorismate mutase4:
 
GRMZM2G124365
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: February 12th, 2014
Variation: January 22nd, 2021
Gene Model: January 21st, 2021
21 days agocold1 cold rsponsive1:
 
GRMZM2G129169
Taikui Zhang et al. 2024. Phylogenomic profiles of whole-genome duplications in Poaceae and landscape of differential duplicate retention and losses among major Poaceae lineages Nat Commun. 15:3305.     Reference: April 17th, 2024
Gene Product: April 15th, 2021
Variation: April 15th, 2021
Gene Model: April 15th, 2021
21 days agopet6 photosynthetic electron transport6:
 
GRMZM2G096792
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: May 11th, 2021
Gene Model: May 11th, 2021
21 days agopet9 photosynthetic electron transport9:
 
GRMZM2G016066
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: May 11th, 2021
Gene Model: May 11th, 2021
21 days agofnr3 ferredoxin NADP reductase3:
 
GRMZM2G168143
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: May 11th, 2021
Variation: July 15th, 2021
Gene Model: May 11th, 2021
21 days agofnr4 ferredoxin NADP reductase4:
 
GRMZM2G059083
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: May 11th, 2021
Gene Model: May 11th, 2021
21 days agod53 dwarf ortholog53:
 
GRMZM2G109674
Taikui Zhang et al. 2024. Phylogenomic profiles of whole-genome duplications in Poaceae and landscape of differential duplicate retention and losses among major Poaceae lineages Nat Commun. 15:3305.   LOC_Os11g01330 (MSU/TIGR)
OS11G0104300 (Gramene)
Reference: April 17th, 2024
Gene Product: June 8th, 2021
Variation: December 27th, 2022
Gene Model: June 8th, 2021
21 days agosae2 SUMO-activating enzyme2:
 
GRMZM2G129575
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: November 26th, 2019
Gene Model: August 17th, 2021
21 days agokrn2 kernel row number2:
 
GRMZM2G125656
Taikui Zhang et al. 2024. Phylogenomic profiles of whole-genome duplications in Poaceae and landscape of differential duplicate retention and losses among major Poaceae lineages Nat Commun. 15:3305.   Os04g0568400 (Gramene) Reference: April 17th, 2024
Gene Product: December 19th, 2020
Variation: March 24th, 2022
Gene Model: March 24th, 2022
21 days agompec2 magnesium-protoporphyrin ester cyclase2:
 
GRMZM2G043109
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.   AT3G56940 (TAIR) Reference: April 17th, 2024
Gene Product: July 7th, 2022
Gene Model: July 7th, 2022
21 days agocmu2 chorismate mutase2:
5.04
GRMZM2G179454
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: February 12th, 2014
Gene Model: February 12th, 2014
21 days agopep6 phosphoenolpyruvate carboxylase6:
8.08
GRMZM2G110714
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Gene Model: June 15th, 2022
21 days agochao2 chlorophyllide a oxygenase2:
8.06
GRMZM2G038487
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: February 12th, 2021
Variation: February 12th, 2021
Gene Model: September 2nd, 2019
21 days agoadt4 arogenate dehydratase4:
9.06
GRMZM2G145451
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: March 4th, 2024
Gene Model: June 26th, 2020
21 days agoIDP628  :
5.03
GRMZM2G156748
Lin, M et al. 2024. Integrative multi-omic analysis identifies genes associated with cuticular wax biogenesis in adult maize leaves bioRxiv preprint. :doi: 10.1101/2024.04.09.588685.     Reference: April 17th, 2024
Variation: March 31st, 2005
Gene Model: May 8th, 2020
21 days agoodc1 ornithine decarboxylase 1:
 
GRMZM2G140824
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: March 19th, 2008
Variation: March 19th, 2008
Gene Model: August 18th, 2020
21 days agoaldh2 aldehyde dehydrogenase2:
4.06
GRMZM2G125268
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: September 1st, 2003
Variation: May 13th, 2009
Gene Model: September 30th, 2015
21 days agoadt2 arogenate dehydratase2:
1.03
GRMZM2G141273
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: March 4th, 2024
Variation: March 4th, 2024
Gene Model: February 6th, 2020
21 days agonyc1 non-yellow coloring1:
3.01
GRMZM2G170013
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.   AT4g13250 (TAIR)
LOC_Os01g12710 (MSU/TIGR)
Os01g0227100 (Gramene)
Reference: April 17th, 2024
Gene Product: December 15th, 2016
Variation: December 15th, 2016
Gene Model: December 15th, 2016
21 days agopet8 photosynthetic electron transport8:
10.02
GRMZM2G016622
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: May 11th, 2021
Gene Model: June 13th, 2017
21 days agopcr1 protochlorophyllide reductase1:
2.01
GRMZM2G084958
Kretschmer , M et al. 2017. Chloroplast-associated metabolic functions influence the susceptibility of maize to Ustilago maydis. Mol Plant Pathol. 18:1210-1221.     Reference: April 17th, 2024
Gene Product: June 8th, 2019
Variation: February 25th, 2013
Gene Model: October 8th, 2014
22 days agogrp2 glycine-rich protein2:
10.03
GRMZM2G009448
Yingjie Zhang et al. 2024. Divergence in regulatory mechanisms of GR-RBP genes in different plants under abiotic stress Sci. Rep.. 14:8743.     Reference: April 16th, 2024
Gene Product: September 18th, 2020
Variation: June 5th, 2014
Gene Model: May 27th, 2015
22 days agogrp1 glycine-rich protein1:
1.08
   Yingjie Zhang et al. 2024. Divergence in regulatory mechanisms of GR-RBP genes in different plants under abiotic stress Sci. Rep.. 14:8743.     Reference: April 16th, 2024
Gene Product: September 18th, 2020
Variation: June 5th, 2014
22 days agorab15 responsive to abscisic acid15:
5.02
   Yingjie Zhang et al. 2024. Divergence in regulatory mechanisms of GR-RBP genes in different plants under abiotic stress Sci. Rep.. 14:8743.     Reference: April 16th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
22 days agohma9 heavy metal ATPase9:
 
GRMZM2G151406
Fan, CJ et al. 2024. Cu-II-directed self-assembly of fullerenols to ameliorate copper stress in maize seedlings Sci Total Environ. :doi: 10.1016/j.scitotenv.2024.172416.     Reference: April 16th, 2024
Gene Product: October 23rd, 2019
Gene Model: October 23rd, 2019
22 days agohma10 heavy metal ATPase10:
 
GRMZM2G143512
Fan, CJ et al. 2024. Cu-II-directed self-assembly of fullerenols to ameliorate copper stress in maize seedlings Sci Total Environ. :doi: 10.1016/j.scitotenv.2024.172416.     Reference: April 16th, 2024
Gene Product: October 23rd, 2019
Gene Model: October 23rd, 2019
22 days agohma11 heavy metal ATPase11:
 
GRMZM2G010152
Fan, CJ et al. 2024. Cu-II-directed self-assembly of fullerenols to ameliorate copper stress in maize seedlings Sci Total Environ. :doi: 10.1016/j.scitotenv.2024.172416.     Reference: April 16th, 2024
Gene Product: October 23rd, 2019
Gene Model: October 23rd, 2019
22 days agoorrm4 organelle RRM protein4:
 
GRMZM2G131167
Yingjie Zhang et al. 2024. Divergence in regulatory mechanisms of GR-RBP genes in different plants under abiotic stress Sci. Rep.. 14:8743.     Reference: April 16th, 2024
Gene Product: April 11th, 2013
Gene Model: July 27th, 2020
22 days agohma12 heavy metal ATPase12:
 
AC205008.4_FG002
Fan, CJ et al. 2024. Cu-II-directed self-assembly of fullerenols to ameliorate copper stress in maize seedlings Sci Total Environ. :doi: 10.1016/j.scitotenv.2024.172416.     Reference: April 16th, 2024
Gene Product: October 23rd, 2019
Gene Model: March 11th, 2022
23 days agoZm00001d017536  :
 
   Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: April 15th, 2024
23 days agoZm00001d034455  :
 
   Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: August 21st, 2018
23 days agotst2 tonoplast sugar transporter2:
5.04
   Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: October 28th, 2021
Variation: September 25th, 2007
23 days agoakin2 AKINbetagamma-1 protein kinase2:
1.03
   Yang, T et al. 2024. Sucrose-associated SnRK1a1-mediated phosphorylation of Opaque2 modulates endosperm filling in maize. Molecular Plant.     Reference: April 15th, 2024
Gene Product: December 4th, 2020
Variation: September 25th, 2007
23 days agoIDP5037  :
3.09
   Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: September 1st, 2003
23 days agotom6 transporter of mugineic acid6:
3.09
GRMZM2G075594
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: September 23rd, 2016
Gene Model: May 18th, 2021
23 days agotom1 transporter of mugineic acid1:
1.07
GRMZM2G415785
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: September 23rd, 2016
Gene Model: April 16th, 2021
23 days agohex1 hexokinase1:
3.02 - 3.03
GRMZM2G104081
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: September 15th, 2013
Variation: February 15th, 2010
Gene Model: September 15th, 2013
23 days agomch2 maize CRY1 homolog2:
 
GRMZM2G069762
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Variation: October 14th, 2010
Gene Model: July 28th, 2016
23 days agomn2 miniature seed2:
7.02 - 7.06
GRMZM2G156794
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Variation: December 14th, 2023
Gene Model: June 29th, 2020
23 days agoo2 opaque endosperm2:
7.01
   Yang, T et al. 2024. Sucrose-associated SnRK1a1-mediated phosphorylation of Opaque2 modulates endosperm filling in maize. Molecular Plant.     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Variation: June 6th, 2016
23 days agoys3 yellow stripe3:
3.04
GRMZM2G063306
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.   LOC_Os11g04020 (MSU/TIGR)
Os11g0134900 (Gramene)
Reference: April 15th, 2024
Gene Product: September 23rd, 2016
Variation: March 9th, 2018
Gene Model: March 9th, 2018
23 days agoumc1214  :
7.04
GRMZM2G167932
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: September 11th, 2018
Gene Model: September 11th, 2018
23 days agorpl15a 60S ribosomal protein L15:
2.08
GRMZM2G034794
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Variation: June 3rd, 2013
Gene Model: August 18th, 2021
23 days agotom7 transporter of mugineic acid7:
2.05
GRMZM2G115658
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: September 23rd, 2016
Variation: September 1st, 2003
Gene Model: February 15th, 2018
23 days agomybr71 MYB-related-transcription factor 71:
10.07
GRMZM2G448104
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: March 5th, 2024
Gene Model: January 18th, 2018
23 days agorps3 ribosomal protein S3:
10.03
GRMZM2G099352
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Variation: October 9th, 2015
Gene Model: October 9th, 2015
23 days agorps22a ribosomal protein S22 homolog:
9.06
GRMZM2G067303
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Variation: July 3rd, 2013
Gene Model: July 28th, 2016
23 days agorps11 ribosomal protein S11:
10.06
GRMZM2G019325
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Variation: January 24th, 2015
Gene Model: August 7th, 2014
23 days agoohp1 opaque2 heterodimerizing protein1:
1.11
   Yang, T et al. 2024. Sucrose-associated SnRK1a1-mediated phosphorylation of Opaque2 modulates endosperm filling in maize. Molecular Plant.     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Variation: February 2nd, 2015
23 days agotst3 tonoplast sugar transporter3:
5.03
GRMZM2G040871
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: October 28th, 2021
Gene Model: June 26th, 2018
23 days agoereb160 AP2-EREBP-transcription factor 160:
9.01
GRMZM2G171179
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: September 1st, 2003
Gene Model: September 25th, 2015
23 days agoabi22 ABI3-VP1-transcription factor 22:
 
   Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: January 29th, 2022
Variation: August 19th, 2015
23 days agobzr4 BZR-transcription factor 4:
 
   Song, LL et al. 2021. 3 Biotech 11:441   AT2G45880 (TAIR) Reference: April 15th, 2024
Gene Product: May 4th, 2022
23 days agoe2f19 E2F-DP-transcription factor 219:
 
   Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: March 24th, 2021
23 days agohsftf16 HSF-transcription factor 16:
 
   Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: May 15th, 2020
23 days agothx16 Trihelix-transcription factor 16:
 
   Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: November 9th, 2021
23 days agobhlh90 bHLH-transcription factor 90:
 
   Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: July 7th, 2021
23 days agobzip100 bZIP-transcription factor 100:
 
   Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: August 21st, 2018
23 days agoarpp3 acidic ribosomal protein P3:
5.03
GRMZM2G077208
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Variation: April 23rd, 2012
Gene Model: August 28th, 2015
23 days agoglct1 glucose translocator1:
8.02
GRMZM2G153704
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: November 21st, 2023
Variation: May 30th, 2014
Gene Model: August 23rd, 2014
23 days agobnl3.04  :
10.00
GRMZM2G127393
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: September 1st, 2003
Gene Model: October 20th, 2018
23 days agoumc62  :
6.07
GRMZM2G022453
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: August 29th, 2018
Gene Model: August 29th, 2018
23 days agomek1 MEK homolog1:
3.07
GRMZM2G167856
Azrai, M et al. 2024. SSRN doi: 10.2139/ssrn.4789824     Reference: April 15th, 2024
Gene Product: July 10th, 2013
Variation: January 11th, 2013
Gene Model: July 12th, 2013
23 days agostp1 sugar transport1:
8.03
   Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: January 2nd, 2023
Variation: August 26th, 2015
23 days agomta1 mouse transplantation antigen homolog1:
1.10
   Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: January 13th, 2020
Variation: January 26th, 2011
23 days agonrt2 nitrate transport2:
4.11
GRMZM2G010280
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Variation: January 17th, 2023
Gene Model: May 9th, 2018
23 days agoo18 opaque18:
5.05 - 5.09
GRMZM2G105466
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: April 15th, 2022
Variation: April 15th, 2022
Gene Model: April 15th, 2022
23 days agomta2 mouse transplantation antigen homolog2:
 
GRMZM2G072315
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: January 13th, 2020
Gene Model: January 12th, 2020
23 days agorpl17a ribosomal protein L17a:
8.03
GRMZM2G119169
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Variation: June 7th, 2013
Gene Model: August 7th, 2014
23 days agorps24 ribosomal protein S24:
5.04
GRMZM2G091383
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Variation: June 11th, 2015
Gene Model: April 15th, 2015
23 days agorpl30 ribosomal protein L30:
8.01
GRMZM2G027728
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: July 28th, 2016
23 days agoarpp2a acidic ribosomal protein P2a:
8.03
   Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Variation: January 28th, 2009
23 days agothi1 thiamine biosynthesis1:
8.05
GRMZM2G018375
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: February 1st, 2013
Variation: January 15th, 2015
Gene Model: January 31st, 2013
23 days agoAY109968  :
7.02
GRMZM2G450488
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Variation: September 25th, 2007
Gene Model: September 6th, 2018
23 days agoamt5 ammonium transporter5:
10.04
GRMZM2G164743
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: July 8th, 2013
Gene Model: December 29th, 2017
23 days agochb101a chromatin remodeling complex subunit B (Swi3):
5.01
GRMZM5G878347
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: September 1st, 2003
Gene Model: June 30th, 2018
23 days agopco098394  :
1.01
   Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: September 25th, 2007
23 days agostp8 sugar transport protein8:
2.08
GRMZM2G159187
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: January 2nd, 2023
Gene Model: December 6th, 2021
23 days agopco128954a  :
2.06
GRMZM2G139900
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: September 25th, 2007
Gene Model: August 13th, 2021
23 days agoarftf12 ARF-transcription factor 12:
3.08
GRMZM2G437460
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: January 29th, 2022
Variation: February 14th, 2022
Gene Model: July 7th, 2017
23 days agorps25 ribosomal protein S25:
4.08
GRMZM2G084868
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: April 14th, 2015
Gene Model: April 15th, 2015
23 days agosut2 sucrose transporter2:
3.04
GRMZM2G307561
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: September 14th, 2013
Variation: February 20th, 2017
Gene Model: April 17th, 2013
23 days agopht2 phosphate transporter protein2:
1.08
GRMZM2G154090
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: June 16th, 2016
Variation: February 4th, 2011
Gene Model: May 27th, 2015
23 days agopht3 phosphate transporter protein3:
 
GRMZM2G045473
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: June 16th, 2016
Variation: December 28th, 2010
Gene Model: May 27th, 2015
23 days agopht4 phosphate transporter protein4:
10.04
GRMZM2G159075
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: June 16th, 2016
Variation: July 14th, 2008
Gene Model: May 27th, 2015
23 days agomstr1 monosaccharide transporter1:
7.00
GRMZM2G135739
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: January 2nd, 2023
Variation: July 14th, 2008
Gene Model: September 17th, 2015
23 days agomstr2 monosaccharide transporter2:
4.04
GRMZM2G141034
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: January 2nd, 2023
Variation: October 19th, 2010
Gene Model: September 17th, 2015
23 days agoarpp2a-3 acidic ribosomal protein P2a-3:
2.01
GRMZM2G010257
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: December 23rd, 2015
Gene Model: August 28th, 2015
23 days agoarpp1a acidic ribosomal protein P1a:
6.00
   Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Variation: January 28th, 2009
23 days agoarpp0 60S acidic ribosomal protein P0:
6.01
GRMZM2G066460
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: January 6th, 2016
Gene Model: August 28th, 2015
23 days agomfsd1 major facilitator superfamily defense1:
 
GRMZM2G161310
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: September 23rd, 2016
Variation: May 9th, 2009
Gene Model: December 29th, 2015
23 days agomfsd2 major facilitator superfamily defense2:
 
GRMZM5G877788
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: September 23rd, 2016
Variation: October 16th, 2010
Gene Model: December 30th, 2015
23 days agofrk1 fructokinase1:
3.05
GRMZM2G086845
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: May 1st, 2010
Gene Model: July 27th, 2016
23 days agomch3 maize CRY1 homolog3:
 
GRMZM2G100462
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: October 14th, 2010
Gene Model: August 23rd, 2018
23 days agopht7 phosphate transporter protein7:
 
GRMZM2G112377
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: June 16th, 2016
Variation: February 4th, 2011
Gene Model: May 27th, 2015
23 days agopht6 phosphate transporter protein6:
 
GRMZM5G881088
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: June 16th, 2016
Variation: June 17th, 2020
Gene Model: May 27th, 2015
23 days agorpl5b 60S ribosomal protein L5-1 homolog b:
 
GRMZM2G163081
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: December 1st, 2019
Variation: April 9th, 2011
Gene Model: July 28th, 2016
23 days agorpl17b ribosomal protein L17b:
 
GRMZM2G702426
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: June 7th, 2013
Gene Model: August 7th, 2014
23 days agotrpp1 trehalose-6-phosphate phosphatase1:
 
GRMZM2G347280
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: October 3rd, 2020
Gene Model: September 15th, 2013
23 days agotrpp9 trehalose-6-phosphate phosphatase9:
 
GRMZM5G840145
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: October 3rd, 2020
Gene Model: September 15th, 2013
23 days agosnrk1a2 SNF1-related kinase alpha1-like2:
 
GRMZM2G180704
Yang, T et al. 2024. Sucrose-associated SnRK1a1-mediated phosphorylation of Opaque2 modulates endosperm filling in maize. Molecular Plant.     Reference: April 15th, 2024
Gene Product: December 4th, 2020
Gene Model: February 13th, 2014
23 days agonrt1 nitrate transport1:
 
GRMZM2G010251
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Gene Model: September 10th, 2014
23 days agonrt3 nitrate transport3:
 
GRMZM2G163866
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Gene Model: September 10th, 2014
23 days agopco072913  :
4.08
GRMZM2G177720
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: September 25th, 2007
Gene Model: April 25th, 2020
23 days agorpl39 ribosomal protein L39:
 
GRMZM2G100467
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Variation: January 13th, 2015
Gene Model: January 13th, 2015
23 days agosut6 sucrose transporter6:
 
GRMZM2G106741
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: September 14th, 2013
Variation: April 13th, 2017
Gene Model: November 3rd, 2015
23 days agoss4 starch synthase4:
 
GRMZM2G044744
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: October 14th, 2016
Gene Model: December 5th, 2015
23 days agopht11 phosphate transporter protein11:
 
GRMZM2G139639
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: June 16th, 2016
Gene Model: June 16th, 2016
23 days agopht12 phosphate transporter protein12:
 
GRMZM2G041595
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: June 16th, 2016
Gene Model: September 12th, 2018
23 days agopht10 phosphate transporter protein10:
 
GRMZM2G075870
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: June 16th, 2016
Gene Model: June 16th, 2016
23 days agopht13 phosphate transporter protein13:
 
GRMZM2G170208
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: June 16th, 2016
Gene Model: June 16th, 2016
23 days agopht8 phosphate transporter protein8:
 
GRMZM2G009779
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: June 16th, 2016
Gene Model: June 16th, 2016
23 days agopht9 phosphate transporter protein9:
 
GRMZM2G070087
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: June 16th, 2016
Gene Model: June 16th, 2016
23 days agoftfh1 flavonoid 3',5'-hydroxylase1:
 
   Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: June 20th, 2018
23 days agospx1 SPX domain-containing membrane protein1:
 
GRMZM2G166976
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: October 9th, 2021
Gene Model: November 21st, 2018
23 days agonrt5 nitrate transport5:
 
GRMZM2G455124
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Gene Model: May 21st, 2019
23 days agotom2 transporter of mugineic acid2:
 
GRMZM2G336448
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: September 23rd, 2016
Gene Model: May 23rd, 2020
23 days agosus6 sucrose synthase6:
 
GRMZM2G045171
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: October 25th, 2006
Gene Model: July 13th, 2020
23 days agobbc1 breast basic conserved homolog1:
 
GRMZM2G145280
Song, LL et al. 2021. 3 Biotech 11:441   AT3G49010 (TAIR) Reference: April 15th, 2024
Gene Product: January 13th, 2020
Gene Model: July 18th, 2020
23 days agorps6b ribosomal proteinS6b:
 
GRMZM5G851698
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Gene Model: September 17th, 2020
23 days agostp4 sugar transport protein4:
 
GRMZM5G801949
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: January 2nd, 2023
Gene Model: October 20th, 2020
23 days agotom4 transporter of mugineic acid4:
 
GRMZM2G029219
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: September 23rd, 2016
Gene Model: October 20th, 2020
23 days agostp3 sugar transport protein3:
 
GRMZM2G374812
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: January 2nd, 2023
Gene Model: January 8th, 2021
23 days agostp5 sugar transport protein5:
 
AC210616.4_FG003
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: January 2nd, 2023
Gene Model: July 8th, 2021
23 days agorpl15c 60S ribosomal protein L15:
 
GRMZM2G024354
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Gene Model: August 18th, 2021
23 days agorps21d 40S ribosomal protein S21d:
 
GRMZM2G125300
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Gene Model: August 18th, 2021
23 days agorpl14b 60S ribosomal protein L14:
 
GRMZM2G028883
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: August 18th, 2021
Gene Model: August 18th, 2021
23 days agospx8 SPX domain-containing membrane protein8:
 
GRMZM2G086430
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: October 9th, 2021
Gene Model: October 9th, 2021
23 days agospx9 SPX domain-containing membrane protein9:
 
GRMZM2G134062
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: October 9th, 2021
Gene Model: October 9th, 2021
23 days agonpf14 nitrate transporter/peptide transporter family14:
 
GRMZM5G827496
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Gene Model: January 2nd, 2022
23 days agostp12 sugar transport protein12:
 
GRMZM2G075229
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: January 2nd, 2023
Gene Model: January 12th, 2022
23 days agostp20 sugar transport protein20:
 
GRMZM2G046700
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: January 2nd, 2023
Gene Model: January 12th, 2022
23 days agostp13 sugar transport protein13:
 
GRMZM2G442546
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: January 2nd, 2023
Gene Model: January 12th, 2022
23 days agostp6 sugar transport protein6:
 
GRMZM5G843141
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: January 2nd, 2023
Gene Model: January 12th, 2022
23 days agostp7 sugar transport protein:
 
   Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: January 2nd, 2023
23 days agostp11 sugar transport protein11:
 
GRMZM2G022440
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: January 2nd, 2023
Gene Model: January 12th, 2022
23 days agostp14 sugar transport protein14:
 
GRMZM2G420004
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: January 2nd, 2023
Gene Model: January 12th, 2022
23 days agostp17 sugar transport protein17:
 
GRMZM2G117146
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: January 2nd, 2023
Gene Model: January 12th, 2022
23 days agostp18 sugar transport protein18:
 
GRMZM2G160614
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: January 2nd, 2023
Gene Model: January 12th, 2022
23 days agostp21 sugar transport protein21:
 
GRMZM2G404965
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: January 2nd, 2023
Gene Model: January 12th, 2022
23 days agostp23 sugar transport protein23:
 
GRMZM2G079342
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: January 2nd, 2023
Gene Model: January 12th, 2022
23 days agoena1 efflux transporter of Na1:
 
   Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: January 18th, 2022
23 days agorps27b ribosomal protein S27b:
5.04
GRMZM2G377600
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: March 14th, 2015
Gene Model: March 14th, 2015
23 days agorps12a ribosomal proteinS12 (homolog):
6.07
GRMZM2G132929
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Gene Model: December 26th, 2019
23 days agopco093173  :
6.06
GRMZM2G044137
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: September 25th, 2007
Gene Model: November 22nd, 2019
23 days agosnrkII2 SnRK2 serine threonine protein kinase2:
7.04
GRMZM2G056732
Yang, T et al. 2024. Sucrose-associated SnRK1a1-mediated phosphorylation of Opaque2 modulates endosperm filling in maize. Molecular Plant.     Reference: April 15th, 2024
Gene Product: April 14th, 2018
Gene Model: February 11th, 2015
23 days agoIDP243  :
1.07
GRMZM2G152552
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: March 31st, 2005
Gene Model: February 14th, 2019
23 days agomagi7806  :
1.10
GRMZM2G165619
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: April 8th, 2021
Gene Model: February 16th, 2019
23 days agoIDP3943  :
1.04
GRMZM2G168674
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: March 31st, 2005
Gene Model: March 24th, 2021
23 days agoIDP4043  :
1.01
GRMZM2G092719
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: March 31st, 2005
Gene Model: April 10th, 2021
23 days agoIDP2449  :
2.04
GRMZM2G065073
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: March 31st, 2005
Gene Model: February 19th, 2019
23 days agorpl12 ribosomal protein L12:
2.04
AC196489.3_FG002
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Variation: March 31st, 2005
Gene Model: February 19th, 2019
23 days agoIDP469  :
2.08
GRMZM2G010991
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: March 31st, 2005
Gene Model: February 20th, 2019
23 days agoIDP661  :
2.09
GRMZM2G111172
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: March 31st, 2005
Gene Model: February 20th, 2019
23 days agoIDP4031  :
3.05
GRMZM2G171484
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: March 31st, 2005
Gene Model: May 15th, 2021
23 days agomagi92568  :
6.05
GRMZM5G850966
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: March 31st, 2005
Gene Model: February 19th, 2021
23 days agoIDP764  :
6.05
GRMZM2G078985
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: March 31st, 2005
Gene Model: July 2nd, 2021
23 days agomagi99589  :
7.03
GRMZM5G870752
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: March 31st, 2005
Gene Model: February 4th, 2019
23 days agoIDP2462  :
9.06
GRMZM2G138589
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Variation: March 31st, 2005
Gene Model: January 22nd, 2019
23 days agomagi104697  :
9.03
GRMZM2G074085
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: March 31st, 2005
Gene Model: January 25th, 2019
23 days agoIDP245  :
10.04
GRMZM2G043737
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: March 31st, 2005
Gene Model: January 2nd, 2018
23 days agoIDP3950  :
10.04
GRMZM2G124411
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: March 31st, 2005
Gene Model: July 20th, 2021
23 days agorps10 ribosomal protein S10:
 
GRMZM2G095511
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: February 13th, 2008
Variation: February 13th, 2008
Gene Model: April 15th, 2015
23 days agocsu36c(rpL19)  :
3.09
GRMZM2G116135
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Variation: March 17th, 2021
Gene Model: February 25th, 2019
23 days agostp19 sugar transport protein19:
7.02
GRMZM2G029153
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: January 2nd, 2023
Gene Model: July 24th, 2020
23 days agorpl44 ribosomal protein L44:
7.03
GRMZM2G009412
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Variation: January 24th, 2009
Gene Model: June 1st, 2017
23 days agoarpp40 acidic ribosomal protein P40:
9.07
GRMZM2G126821
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Variation: August 27th, 2015
Gene Model: August 28th, 2015
23 days agorps4 ribosomal protein S4:
5.00
GRMZM2G125271
Song, LL et al. 2021. 3 Biotech 11:441     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Variation: May 21st, 2009
Gene Model: August 7th, 2014
23 days agoost1 oligosaccharide transferase1:
7.02
GRMZM2G462325
Xiaowan Hou et al. 2024. Two maize homologs of mammalian proton-coupled folate transporter, ZmMFS_1-62 and ZmMFS_1-73, are essential to salt and drought tolerance Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108623.     Reference: April 15th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: December 28th, 2016
26 days agomrpa23 multidrug resistance associated protein23:
 
   Li, PC et al. 2024. Genomic basis determining root system architecture in maize. Theor Appl Genet. 137:102.     Reference: April 12th, 2024
Gene Product: July 11th, 2019
26 days agoereb229 AP2-EREBP-transcription factor 229:
 
   Xiang, Y et al. 2024. Autophagy receptor ZmNBR1 promotes the autophagic degradation of ZmBRI1a and enhances drought tolerance in maize. J Integr Plant Biol. :doi: 10.1111/jipb.13662.     Reference: April 12th, 2024
Gene Product: July 5th, 2019
26 days agoprp19 pathogenesis-related protein19:
 
   Ronglan Li et al. 2024. Meta-Quantitative Trait Loci Analysis and Candidate Gene Mining for Drought Tolerance-Associated Traits in Maize (Zea mays L.) Int J Mol Sci. 25:4295.     Reference: April 12th, 2024
Gene Product: December 12th, 2022
26 days agoprp13 pathogenesis-related protein13:
 
   Ronglan Li et al. 2024. Meta-Quantitative Trait Loci Analysis and Candidate Gene Mining for Drought Tolerance-Associated Traits in Maize (Zea mays L.) Int J Mol Sci. 25:4295.     Reference: April 12th, 2024
Gene Product: December 12th, 2022
26 days agopebp3 phosphatidylethanolamine-binding protein3:
 
   Ronglan Li et al. 2024. Meta-Quantitative Trait Loci Analysis and Candidate Gene Mining for Drought Tolerance-Associated Traits in Maize (Zea mays L.) Int J Mol Sci. 25:4295.     Reference: April 12th, 2024
Gene Product: March 19th, 2024
Variation: December 15th, 2010
26 days agopebp6 phosphatidylethanolamine-binding protein6:
 
   Ronglan Li et al. 2024. Meta-Quantitative Trait Loci Analysis and Candidate Gene Mining for Drought Tolerance-Associated Traits in Maize (Zea mays L.) Int J Mol Sci. 25:4295.     Reference: April 12th, 2024
Gene Product: March 19th, 2024
Variation: December 15th, 2010
26 days agobz1 bronze1:
9.02
   Deng, M et al. 2024. Combining association with linkage mapping to dissect the phenolamides metabolism of the maize kernel Frontiers in Plant Science. 15:1376405.     Reference: April 12th, 2024
Gene Product: July 4th, 2018
Variation: December 17th, 2022
26 days agog2 golden plant2:
3.00 - 3.01
GRMZM2G087804
Li, PC et al. 2024. Genomic basis determining root system architecture in maize. Theor Appl Genet. 137:102.     Reference: April 12th, 2024
Gene Product: July 11th, 2019
Variation: October 24th, 2017
Gene Model: August 30th, 2013
26 days agors2 rough sheath2:
1.05
   Li, PC et al. 2024. Genomic basis determining root system architecture in maize. Theor Appl Genet. 137:102.     Reference: April 12th, 2024
Gene Product: September 1st, 2003
Variation: May 9th, 2009
26 days agoarftf25 ARF-transcription factor 25:
8.06
GRMZM2G116557
Li, PC et al. 2024. Genomic basis determining root system architecture in maize. Theor Appl Genet. 137:102.     Reference: April 12th, 2024
Gene Product: January 29th, 2022
Variation: August 22nd, 2017
Gene Model: August 22nd, 2017
26 days agoiaa38 Aux/IAA-transcription factor 38:
8.04
GRMZM2G035465
Li, PC et al. 2024. Genomic basis determining root system architecture in maize. Theor Appl Genet. 137:102.     Reference: April 12th, 2024
Variation: March 12th, 2022
Gene Model: September 19th, 2018
26 days agoarr2 ARR-B-transcription factor 2:
 
   Li, PC et al. 2024. Genomic basis determining root system architecture in maize. Theor Appl Genet. 137:102.     Reference: April 12th, 2024
Gene Product: June 30th, 2017
26 days agopip1b plasma membrane intrinsic protein1:
5.06
   Xiang, Y et al. 2024. Autophagy receptor ZmNBR1 promotes the autophagic degradation of ZmBRI1a and enhances drought tolerance in maize. J Integr Plant Biol. :doi: 10.1111/jipb.13662.     Reference: April 12th, 2024
Gene Product: January 27th, 2022
Variation: April 26th, 2016
26 days agopip2a plasma membrane intrinsic protein2:
2.03
   Xiang, Y et al. 2024. Autophagy receptor ZmNBR1 promotes the autophagic degradation of ZmBRI1a and enhances drought tolerance in maize. J Integr Plant Biol. :doi: 10.1111/jipb.13662.     Reference: April 12th, 2024
Gene Product: September 1st, 2003
Variation: January 25th, 2020
26 days agocal1 calmodulin1:
5.06
   Ronglan Li et al. 2024. Meta-Quantitative Trait Loci Analysis and Candidate Gene Mining for Drought Tolerance-Associated Traits in Maize (Zea mays L.) Int J Mol Sci. 25:4295.     Reference: April 12th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
26 days agolox1 lipoxygenase1:
3.06
   Ronglan Li et al. 2024. Meta-Quantitative Trait Loci Analysis and Candidate Gene Mining for Drought Tolerance-Associated Traits in Maize (Zea mays L.) Int J Mol Sci. 25:4295.     Reference: April 12th, 2024
Gene Product: November 13th, 2014
Variation: July 24th, 2008
26 days agoobf4 octopine synthase binding factor4:
3.06
GRMZM2G125243
Ronglan Li et al. 2024. Meta-Quantitative Trait Loci Analysis and Candidate Gene Mining for Drought Tolerance-Associated Traits in Maize (Zea mays L.) Int J Mol Sci. 25:4295.     Reference: April 12th, 2024
Gene Product: September 1st, 2003
Variation: October 29th, 2010
Gene Model: April 11th, 2013
26 days agocdc3 cell division control protein homolog3:
3.10
GRMZM2G495626
Li, PC et al. 2024. Genomic basis determining root system architecture in maize. Theor Appl Genet. 137:102.     Reference: April 12th, 2024
Gene Product: October 19th, 2022
Gene Model: December 21st, 2018
26 days agoeil1 ethylene insensitive-like1:
9.05
GRMZM2G317584
Ronglan Li et al. 2024. Meta-Quantitative Trait Loci Analysis and Candidate Gene Mining for Drought Tolerance-Associated Traits in Maize (Zea mays L.) Int J Mol Sci. 25:4295.     Reference: April 12th, 2024
Variation: August 6th, 2008
Gene Model: August 29th, 2013
26 days agoeil3 ethylene insensitive-like3:
1.04
GRMZM2G033570
Ronglan Li et al. 2024. Meta-Quantitative Trait Loci Analysis and Candidate Gene Mining for Drought Tolerance-Associated Traits in Maize (Zea mays L.) Int J Mol Sci. 25:4295.     Reference: April 12th, 2024
Variation: August 6th, 2008
Gene Model: August 29th, 2013
26 days agopin3 PIN-formed protein3:
4.08
GRMZM2G149184
Li, PC et al. 2024. Genomic basis determining root system architecture in maize. Theor Appl Genet. 137:102.     Reference: April 12th, 2024
Gene Product: April 3rd, 2024
Gene Model: June 7th, 2012
26 days agobri1a brassinosteroid insensitive1a:
 
GRMZM2G048294
Xiang, Y et al. 2024. Autophagy receptor ZmNBR1 promotes the autophagic degradation of ZmBRI1a and enhances drought tolerance in maize. J Integr Plant Biol. :doi: 10.1111/jipb.13662.   AT4G39400 (TAIR)
LOC_Os01g52050 (MSU/TIGR)
Reference: April 12th, 2024
Gene Product: June 23rd, 2021
Variation: July 17th, 2015
Gene Model: July 16th, 2015
26 days agoprh15 protein phosphatase homolog15:
 
GRMZM2G383807
Ronglan Li et al. 2024. Meta-Quantitative Trait Loci Analysis and Candidate Gene Mining for Drought Tolerance-Associated Traits in Maize (Zea mays L.) Int J Mol Sci. 25:4295.     Reference: April 12th, 2024
Gene Product: October 25th, 2021
Gene Model: October 18th, 2016
26 days agopyl3 pyrabactin resistance-like protein3:
 
GRMZM2G154987
Ronglan Li et al. 2024. Meta-Quantitative Trait Loci Analysis and Candidate Gene Mining for Drought Tolerance-Associated Traits in Maize (Zea mays L.) Int J Mol Sci. 25:4295.     Reference: April 12th, 2024
Gene Product: January 31st, 2021
Gene Model: April 21st, 2018
26 days agoopst2 open stomate2:
 
GRMZM2G171435
Ronglan Li et al. 2024. Meta-Quantitative Trait Loci Analysis and Candidate Gene Mining for Drought Tolerance-Associated Traits in Maize (Zea mays L.) Int J Mol Sci. 25:4295.   AT4G33950 (TAIR) Reference: April 12th, 2024
Gene Product: April 14th, 2018
Gene Model: June 11th, 2019
26 days agoaas3 auxin amido synthetase3:
 
GRMZM2G410567
Ronglan Li et al. 2024. Meta-Quantitative Trait Loci Analysis and Candidate Gene Mining for Drought Tolerance-Associated Traits in Maize (Zea mays L.) Int J Mol Sci. 25:4295.   AT1G28130 (TAIR) Reference: April 12th, 2024
Gene Product: October 21st, 2019
Gene Model: October 21st, 2019
26 days agoaas12 auxin amido synthetase12:
 
GRMZM2G366873
Ronglan Li et al. 2024. Meta-Quantitative Trait Loci Analysis and Candidate Gene Mining for Drought Tolerance-Associated Traits in Maize (Zea mays L.) Int J Mol Sci. 25:4295.     Reference: April 12th, 2024
Gene Product: October 21st, 2019
Gene Model: October 21st, 2019
26 days agouce16 ubiquitin-conjugating enzyme16:
 
GRMZM2G312693
Ronglan Li et al. 2024. Meta-Quantitative Trait Loci Analysis and Candidate Gene Mining for Drought Tolerance-Associated Traits in Maize (Zea mays L.) Int J Mol Sci. 25:4295.     Reference: April 12th, 2024
Gene Product: December 19th, 2019
Gene Model: December 19th, 2019
26 days agoarr8 ARR-B-transcription factor 8:
5.08
GRMZM2G479110
Li, PC et al. 2024. Genomic basis determining root system architecture in maize. Theor Appl Genet. 137:102.     Reference: April 12th, 2024
Gene Product: June 30th, 2017
Variation: June 30th, 2017
Gene Model: June 30th, 2017
26 days agodrg10 dark response gene10:
 
GRMZM2G107199
Xiang, Y et al. 2024. Autophagy receptor ZmNBR1 promotes the autophagic degradation of ZmBRI1a and enhances drought tolerance in maize. J Integr Plant Biol. :doi: 10.1111/jipb.13662.     Reference: April 12th, 2024
Variation: January 25th, 2021
Gene Model: June 6th, 2020
26 days agoprp8 pathogenesis-related protein8:
 
GRMZM2G456997
Ronglan Li et al. 2024. Meta-Quantitative Trait Loci Analysis and Candidate Gene Mining for Drought Tolerance-Associated Traits in Maize (Zea mays L.) Int J Mol Sci. 25:4295.     Reference: April 12th, 2024
Gene Product: December 12th, 2022
Gene Model: June 16th, 2020
26 days agocyc23 cyclin23:
 
GRMZM2G061287
Li, PC et al. 2024. Genomic basis determining root system architecture in maize. Theor Appl Genet. 137:102.     Reference: April 12th, 2024
Gene Product: June 26th, 2009
Gene Model: January 11th, 2021
26 days agobsk1 brassinosteroid-signaling kinase1:
 
GRMZM2G127050
Xiang, Y et al. 2024. Autophagy receptor ZmNBR1 promotes the autophagic degradation of ZmBRI1a and enhances drought tolerance in maize. J Integr Plant Biol. :doi: 10.1111/jipb.13662.     Reference: April 12th, 2024
Gene Product: May 13th, 2014
Gene Model: April 19th, 2021
26 days agoact10 actin10:
 
GRMZM2G030169
Xiang, Y et al. 2024. Autophagy receptor ZmNBR1 promotes the autophagic degradation of ZmBRI1a and enhances drought tolerance in maize. J Integr Plant Biol. :doi: 10.1111/jipb.13662.     Reference: April 12th, 2024
Gene Product: September 1st, 2003
Gene Model: April 20th, 2021
26 days agogsk2 glycogen synthase kinase2:
 
GRMZM2G472625
Xiang, Y et al. 2024. Autophagy receptor ZmNBR1 promotes the autophagic degradation of ZmBRI1a and enhances drought tolerance in maize. J Integr Plant Biol. :doi: 10.1111/jipb.13662.     Reference: April 12th, 2024
Gene Product: February 22nd, 2022
Gene Model: June 24th, 2021
26 days agoprp15 pathogenesis-related protein15:
 
GRMZM2G053493
Ronglan Li et al. 2024. Meta-Quantitative Trait Loci Analysis and Candidate Gene Mining for Drought Tolerance-Associated Traits in Maize (Zea mays L.) Int J Mol Sci. 25:4295.     Reference: April 12th, 2024
Gene Product: December 12th, 2022
Gene Model: August 9th, 2022
26 days agoago1 argonaute1:
8.05
GRMZM2G162525
Li, PC et al. 2024. Genomic basis determining root system architecture in maize. Theor Appl Genet. 137:102.     Reference: April 12th, 2024
Gene Product: August 12th, 2016
Variation: November 5th, 2010
Gene Model: January 30th, 2015
26 days agoasc1 asceapen1:
7.02
GRMZM2G140633
Li, PC et al. 2024. Genomic basis determining root system architecture in maize. Theor Appl Genet. 137:102.     Reference: April 12th, 2024
Gene Product: June 26th, 2009
Variation: June 29th, 2009
Gene Model: December 8th, 2014
26 days agocko3 cytokinin oxidase 3:
8.06
GRMZM2G167220
Li, PC et al. 2024. Genomic basis determining root system architecture in maize. Theor Appl Genet. 137:102.     Reference: April 12th, 2024
Gene Product: March 19th, 2014
Variation: February 27th, 2008
Gene Model: March 21st, 2014
26 days agoumi11 Ustilago maydis induced11:
7.00
GRMZM2G450866
Ronglan Li et al. 2024. Meta-Quantitative Trait Loci Analysis and Candidate Gene Mining for Drought Tolerance-Associated Traits in Maize (Zea mays L.) Int J Mol Sci. 25:4295.     Reference: April 12th, 2024
Gene Product: January 12th, 2015
Variation: January 11th, 2015
Gene Model: January 11th, 2015
27 days agolg1 liguleless1:
2.01
   Bertolini, E et al. 2023. Regulatory variation controlling architectural pleiotropy in maize bioRxiv preprint. :doi: 10.1101/2023.08.19.553731.     Reference: April 11th, 2024
Gene Product: December 18th, 2014
Variation: August 17th, 2020
27 days agolg4 liguleless4:
8.05
GRMZM2G094241
Bertolini, E et al. 2023. Regulatory variation controlling architectural pleiotropy in maize bioRxiv preprint. :doi: 10.1101/2023.08.19.553731.     Reference: April 11th, 2024
Gene Product: August 22nd, 2014
Variation: May 18th, 2012
Gene Model: May 24th, 2012
27 days agotb1 teosinte branched1:
1.09
   Mascher, M et al. 2024. Are cereal grasses a single genetic system? Nature Plants. :doi: 10.1038/s41477-024-01674-3.     Reference: April 11th, 2024
Gene Product: September 14th, 2016
Variation: December 28th, 2023
27 days agozhd21 ZF-HD-transcription factor 21:
3.05
GRMZM5G821755
Bertolini, E et al. 2023. Regulatory variation controlling architectural pleiotropy in maize bioRxiv preprint. :doi: 10.1101/2023.08.19.553731.     Reference: April 11th, 2024
Gene Product: August 24th, 2022
Variation: April 11th, 2024
Gene Model: March 21st, 2018
27 days agowab1 Wavy auricles in blades1:
2.06 - 2.07
GRMZM2G110242
Bertolini, E et al. 2023. Regulatory variation controlling architectural pleiotropy in maize bioRxiv preprint. :doi: 10.1101/2023.08.19.553731.   LOC_Os09g24480 (MSU/TIGR)
Os09g0410500 (Gramene)
Reference: April 11th, 2024
Gene Product: September 14th, 2016
Variation: November 2nd, 2014
Gene Model: November 2nd, 2014
27 days agoabi41 ABI3-VP1-transcription factor 41:
 
   Bertolini, E et al. 2023. Regulatory variation controlling architectural pleiotropy in maize bioRxiv preprint. :doi: 10.1101/2023.08.19.553731.     Reference: April 11th, 2024
Gene Product: January 29th, 2022
Variation: July 19th, 2021
27 days agoereb53 AP2-EREBP-transcription factor 53:
 
   McFarland, FL et al. 2024. History and current status of embryogenic culture-based tissue culture, transformation and gene editing of maize (Zea mays L.). Plant Genome. :e20451.   LOC_Os1g67410 (MSU/TIGR) Reference: April 11th, 2024
Gene Product: July 5th, 2019
27 days agoereb92 AP2-EREBP-transcription factor 92:
 
   Bertolini, E et al. 2023. Regulatory variation controlling architectural pleiotropy in maize bioRxiv preprint. :doi: 10.1101/2023.08.19.553731.     Reference: April 11th, 2024
Variation: November 17th, 2023
27 days agodof25 C2C2-Dof-transcription factor 25:
 
   Bertolini, E et al. 2023. Regulatory variation controlling architectural pleiotropy in maize bioRxiv preprint. :doi: 10.1101/2023.08.19.553731.     Reference: April 11th, 2024
Gene Product: July 4th, 2022
27 days agowox2a WUSCHEL-related homeobox 2a`:
 
   McFarland, FL et al. 2024. History and current status of embryogenic culture-based tissue culture, transformation and gene editing of maize (Zea mays L.). Plant Genome. :e20451.     Reference: April 11th, 2024
Gene Product: August 25th, 2017
27 days agozhd1 ZF-HD-transcription factor 1:
 
   Bertolini, E et al. 2023. Regulatory variation controlling architectural pleiotropy in maize bioRxiv preprint. :doi: 10.1101/2023.08.19.553731.     Reference: April 11th, 2024
Gene Product: August 24th, 2022
Variation: April 11th, 2024
27 days agozhd15 ZF-HD-transcription factor 15:
 
   Bertolini, E et al. 2023. Regulatory variation controlling architectural pleiotropy in maize bioRxiv preprint. :doi: 10.1101/2023.08.19.553731.     Reference: April 11th, 2024
Gene Product: August 24th, 2022
27 days agolpa2 low phytic acid2:
1.05
GRMZM2G456626
Indhu, SM et al. 2024. Genetic diversity and decoding the genetics of phytic acid by investigating the inheritance of lpa 2 allele in maize (Zea mays L.) Electron J Plant Breed. 15:110-119.     Reference: April 11th, 2024
Gene Product: April 22nd, 2013
Variation: April 22nd, 2013
Gene Model: April 23rd, 2013
27 days agogn1 gnarley1:
2.10
   Bertolini, E et al. 2023. Regulatory variation controlling architectural pleiotropy in maize bioRxiv preprint. :doi: 10.1101/2023.08.19.553731.     Reference: April 11th, 2024
Gene Product: September 1st, 2003
Variation: May 30th, 2014
27 days agoyab10 yabby homolog10:
1.07
   Mascher, M et al. 2024. Are cereal grasses a single genetic system? Nature Plants. :doi: 10.1038/s41477-024-01674-3.     Reference: April 11th, 2024
Gene Product: October 16th, 2015
Variation: March 23rd, 2009
27 days agoyab12 C2C2-YABBY-transcription factor 12:
 
GRMZM2G085873
Mascher, M et al. 2024. Are cereal grasses a single genetic system? Nature Plants. :doi: 10.1038/s41477-024-01674-3.     Reference: April 11th, 2024
Gene Product: October 16th, 2015
Gene Model: October 16th, 2015
27 days agoyab6 C2C2-YABBY-transcription factor 6:
 
GRMZM2G074124
Mascher, M et al. 2024. Are cereal grasses a single genetic system? Nature Plants. :doi: 10.1038/s41477-024-01674-3.     Reference: April 11th, 2024
Gene Product: October 16th, 2015
Variation: May 6th, 2020
Gene Model: July 3rd, 2012
27 days agobri1b brassinosteroid insensitive1b:
 
GRMZM2G449830
Bertolini, E et al. 2023. Regulatory variation controlling architectural pleiotropy in maize bioRxiv preprint. :doi: 10.1101/2023.08.19.553731.     Reference: April 11th, 2024
Gene Product: June 23rd, 2021
Variation: July 17th, 2015
Gene Model: July 16th, 2015
27 days agoyab13 C2C2-YABBY-transcription factor 13:
 
   Mascher, M et al. 2024. Are cereal grasses a single genetic system? Nature Plants. :doi: 10.1038/s41477-024-01674-3.     Reference: April 11th, 2024
Gene Product: October 16th, 2015
27 days agogsk1 glycogen synthase kinase1:
 
GRMZM2G045330
Bertolini, E et al. 2023. Regulatory variation controlling architectural pleiotropy in maize bioRxiv preprint. :doi: 10.1101/2023.08.19.553731.     Reference: April 11th, 2024
Gene Product: February 22nd, 2022
Gene Model: February 22nd, 2022
27 days agofun1 feminised upright narrow1:
 
GRMZM2G022651
Bertolini, E et al. 2023. Regulatory variation controlling architectural pleiotropy in maize bioRxiv preprint. :doi: 10.1101/2023.08.19.553731.   AT3G58770 (TAIR) Reference: April 11th, 2024
Variation: March 12th, 2022
Gene Model: March 12th, 2022
28 days agopor2 porin2:
10.06
GRMZM2G125023
Deyin Wang et al. 2024. Aquaporin ZmTIP2;3 Promotes Drought Resistance of Maize through Symbiosis with Arbuscular Mycorrhizal Fungi Int J Mol Sci. 25:4205.     Reference: April 10th, 2024
Gene Product: January 27th, 2022
Variation: April 10th, 2024
Gene Model: February 5th, 2015
29 days agohggt1 homogentisate geranylgeranyl transferase1:
 
GRMZM2G173358
My Abdelmajid Kassem et al. 2024. A Summary of Two Decades of QTL and Candidate Genes That Control Seed Tocopherol Contents in Maize (Zea mays L.) Genes. 15:472.     Reference: April 9th, 2024
Gene Product: January 8th, 2018
Gene Model: June 26th, 2013
29 days agopyk2 pyruvate kinase2:
10.01
GRMZM2G004534
My Abdelmajid Kassem et al. 2024. A Summary of Two Decades of QTL and Candidate Genes That Control Seed Tocopherol Contents in Maize (Zea mays L.) Genes. 15:472.     Reference: April 9th, 2024
Gene Product: April 8th, 2011
Variation: April 6th, 2007
Gene Model: July 28th, 2016
29 days agosxd1 sucrose export defective1:
5.04
   My Abdelmajid Kassem et al. 2024. A Summary of Two Decades of QTL and Candidate Genes That Control Seed Tocopherol Contents in Maize (Zea mays L.) Genes. 15:472.     Reference: April 9th, 2024
Gene Product: December 1st, 2012
Variation: August 7th, 2012
29 days agovte5 vitamin E synthesis5:
2.01
   My Abdelmajid Kassem et al. 2024. A Summary of Two Decades of QTL and Candidate Genes That Control Seed Tocopherol Contents in Maize (Zea mays L.) Genes. 15:472.     Reference: April 9th, 2024
Gene Product: June 6th, 2022
29 days agoggh1 geranylgeranyl hydrogenase1:
 
GRMZM2G105644
My Abdelmajid Kassem et al. 2024. A Summary of Two Decades of QTL and Candidate Genes That Control Seed Tocopherol Contents in Maize (Zea mays L.) Genes. 15:472.     Reference: April 9th, 2024
Gene Product: October 4th, 2014
Gene Model: October 4th, 2014
29 days agoggh2 geranylgeranyl hydrogenase2:
 
GRMZM2G419111
My Abdelmajid Kassem et al. 2024. A Summary of Two Decades of QTL and Candidate Genes That Control Seed Tocopherol Contents in Maize (Zea mays L.) Genes. 15:472.     Reference: April 9th, 2024
Gene Product: October 4th, 2014
Gene Model: October 4th, 2014
29 days agovim102 variant in methylation102:
 
GRMZM2G339151
Haoxiang Yang et al. 2024. QTL mapping for plant height and ear height using bi-parental immortalized heterozygous populations in maize. Frontiers in Plant Science. 15:1371394.     Reference: April 9th, 2024
Variation: December 22nd, 2014
Gene Model: December 22nd, 2014
29 days agootp51 organelle transcript processing51:
 
GRMZM2G325019
My Abdelmajid Kassem et al. 2024. A Summary of Two Decades of QTL and Candidate Genes That Control Seed Tocopherol Contents in Maize (Zea mays L.) Genes. 15:472.     Reference: April 9th, 2024
Gene Product: December 27th, 2016
Variation: October 20th, 2017
Gene Model: February 17th, 2015
29 days agocle16 clavata3/esr-related16:
 
GRMZM5G818232
My Abdelmajid Kassem et al. 2024. A Summary of Two Decades of QTL and Candidate Genes That Control Seed Tocopherol Contents in Maize (Zea mays L.) Genes. 15:472.     Reference: April 9th, 2024
Gene Product: February 22nd, 2021
Gene Model: September 17th, 2016
29 days agomcm1 minichromosome maintenance1:
 
GRMZM2G065205
Haoxiang Yang et al. 2024. QTL mapping for plant height and ear height using bi-parental immortalized heterozygous populations in maize. Frontiers in Plant Science. 15:1371394.   AT4G02060 (TAIR) Reference: April 9th, 2024
Gene Product: August 2nd, 2017
Gene Model: July 30th, 2017
29 days agohpt1 homogentisate phytyltransferase1:
 
GRMZM2G048472
My Abdelmajid Kassem et al. 2024. A Summary of Two Decades of QTL and Candidate Genes That Control Seed Tocopherol Contents in Maize (Zea mays L.) Genes. 15:472.     Reference: April 9th, 2024
Gene Product: January 8th, 2018
Gene Model: January 8th, 2018
29 days agohggt3 homogentisate geranylgeranyltransferase3:
 
GRMZM5G848876
My Abdelmajid Kassem et al. 2024. A Summary of Two Decades of QTL and Candidate Genes That Control Seed Tocopherol Contents in Maize (Zea mays L.) Genes. 15:472.     Reference: April 9th, 2024
Gene Product: January 8th, 2018
Gene Model: January 8th, 2018
29 days agohggt2 homogentisate geranylgeranyltransferase3:
 
GRMZM2G410644
My Abdelmajid Kassem et al. 2024. A Summary of Two Decades of QTL and Candidate Genes That Control Seed Tocopherol Contents in Maize (Zea mays L.) Genes. 15:472.     Reference: April 9th, 2024
Gene Product: January 8th, 2018
Gene Model: January 8th, 2018
29 days agovte4 vitamin E synthesis4:
5.06
GRMZM2G173358
My Abdelmajid Kassem et al. 2024. A Summary of Two Decades of QTL and Candidate Genes That Control Seed Tocopherol Contents in Maize (Zea mays L.) Genes. 15:472.     Reference: April 9th, 2024
Gene Product: June 26th, 2013
Gene Model: June 26th, 2013
29 days agoaaap36 amino acid/auxin permease36:
 
GRMZM2G161641
My Abdelmajid Kassem et al. 2024. A Summary of Two Decades of QTL and Candidate Genes That Control Seed Tocopherol Contents in Maize (Zea mays L.) Genes. 15:472.     Reference: April 9th, 2024
Gene Product: March 31st, 2021
Gene Model: March 30th, 2021
29 days agocry1 cryptochrome1:
5.05
GRMZM2G024739
My Abdelmajid Kassem et al. 2024. A Summary of Two Decades of QTL and Candidate Genes That Control Seed Tocopherol Contents in Maize (Zea mays L.) Genes. 15:472.     Reference: April 9th, 2024
Gene Product: August 31st, 2018
Gene Model: August 31st, 2018
29 days agoZm00001d009150  :
 
GRMZM2G003022
My Abdelmajid Kassem et al. 2024. A Summary of Two Decades of QTL and Candidate Genes That Control Seed Tocopherol Contents in Maize (Zea mays L.) Genes. 15:472.     Reference: April 9th, 2024
Gene Product: June 24th, 2022
Gene Model: June 24th, 2022
29 days agoIDP109  :
4.03
GRMZM5G892742
My Abdelmajid Kassem et al. 2024. A Summary of Two Decades of QTL and Candidate Genes That Control Seed Tocopherol Contents in Maize (Zea mays L.) Genes. 15:472.     Reference: April 9th, 2024
Variation: March 31st, 2005
Gene Model: May 21st, 2021
29 days agohppd1 4-hydroxyphenylpyruvate dioxygenase 1:
5.04
GRMZM2G088396
My Abdelmajid Kassem et al. 2024. A Summary of Two Decades of QTL and Candidate Genes That Control Seed Tocopherol Contents in Maize (Zea mays L.) Genes. 15:472.     Reference: April 9th, 2024
Gene Product: June 2nd, 2005
Variation: October 22nd, 2020
Gene Model: July 28th, 2016
29 days agoapg1 albino or pale green mutant1:
1.05
GRMZM2G082998
My Abdelmajid Kassem et al. 2024. A Summary of Two Decades of QTL and Candidate Genes That Control Seed Tocopherol Contents in Maize (Zea mays L.) Genes. 15:472.     Reference: April 9th, 2024
Variation: December 30th, 2015
Gene Model: February 17th, 2015
32 days agotru1 tassels replace upper ears1:
3.04 - 3.10
GRMZM2G039867
Hao Wu et al. 2024. A multiplexed transcriptomic analysis of a plant embryonic hourglass bioRxiv preprint. :doi: 10.1101/2024.04.04.588207.     Reference: April 6th, 2024
Gene Product: December 17th, 2013
Variation: December 18th, 2013
Gene Model: December 17th, 2013
32 days agowox3a WUSCHEL homeobox 3A:
6.01
GRMZM2G122537
Hao Wu et al. 2024. A multiplexed transcriptomic analysis of a plant embryonic hourglass bioRxiv preprint. :doi: 10.1101/2024.04.04.588207.     Reference: April 6th, 2024
Gene Product: August 25th, 2017
Variation: August 19th, 2018
Gene Model: August 18th, 2018
32 days agoarftf3 ARF-transcription factor 3:
 
   Hao Wu et al. 2024. A multiplexed transcriptomic analysis of a plant embryonic hourglass bioRxiv preprint. :doi: 10.1101/2024.04.04.588207.     Reference: April 6th, 2024
Gene Product: January 29th, 2022
32 days agons1 narrow sheath1:
2.05
   Hao Wu et al. 2024. A multiplexed transcriptomic analysis of a plant embryonic hourglass bioRxiv preprint. :doi: 10.1101/2024.04.04.588207.     Reference: April 6th, 2024
Gene Product: August 25th, 2017
Variation: February 20th, 2015
32 days agoyab14 yabby14:
10.05
   Hao Wu et al. 2024. A multiplexed transcriptomic analysis of a plant embryonic hourglass bioRxiv preprint. :doi: 10.1101/2024.04.04.588207.     Reference: April 6th, 2024
Gene Product: October 16th, 2015
Variation: March 23rd, 2009
32 days agoifa1 indeterminate floral apex1:
 
GRMZM2G088309
Hao Wu et al. 2024. A multiplexed transcriptomic analysis of a plant embryonic hourglass bioRxiv preprint. :doi: 10.1101/2024.04.04.588207.   AT1G69180 (TAIR)
LOC_Os03g11600 (MSU/TIGR)
Reference: April 6th, 2024
Gene Product: October 16th, 2015
Variation: July 13th, 2017
Gene Model: October 16th, 2015
32 days agotraf8 TNF receptor-associated factor 8:
 
GRMZM2G026556
Hao Wu et al. 2024. A multiplexed transcriptomic analysis of a plant embryonic hourglass bioRxiv preprint. :doi: 10.1101/2024.04.04.588207.     Reference: April 6th, 2024
Gene Product: June 30th, 2021
Gene Model: May 20th, 2019
32 days agochn22 chitinase22:
 
GRMZM2G099454
Hao Wu et al. 2024. A multiplexed transcriptomic analysis of a plant embryonic hourglass bioRxiv preprint. :doi: 10.1101/2024.04.04.588207.     Reference: April 6th, 2024
Gene Product: May 31st, 2021
Gene Model: May 31st, 2021
32 days agochn32 chitinase32:
 
GRMZM2G099454
Hao Wu et al. 2024. A multiplexed transcriptomic analysis of a plant embryonic hourglass bioRxiv preprint. :doi: 10.1101/2024.04.04.588207.     Reference: April 6th, 2024
Gene Product: May 31st, 2021
Gene Model: June 1st, 2021
33 days agogsk12 glycogen synthase kinase12:
 
   Zebosi, B et al. 2024. Conservation and diversification of genes regulating brassinosteroid biosynthesis and signaling bioRxiv preprint. :doi: 10.1101/2024.03.26.586792.     Reference: April 5th, 2024
Gene Product: February 22nd, 2022
33 days agogsk3 glycogen synthase kinase3:
5.04
GRMZM2G151916
Zebosi, B et al. 2024. Conservation and diversification of genes regulating brassinosteroid biosynthesis and signaling bioRxiv preprint. :doi: 10.1101/2024.03.26.586792.     Reference: April 5th, 2024
Gene Product: February 22nd, 2022
Variation: September 25th, 2007
Gene Model: October 22nd, 2020
33 days agorca1 RUBISCO activase1:
4.00
GRMZM2G162200
Yanyan Fan et al. 2024. Effects of nitrogen fertilizer on photosynthetic characteristics, C4 pathway, and related gene expression of maize varieties with different nitrogen efficiency Pakistan J Bot. 56:doi: 10.30848/PJB2024-4(15).     Reference: April 5th, 2024
Gene Product: October 28th, 2014
Variation: September 1st, 2003
Gene Model: February 13th, 2014
33 days agogsk4 glycogen synthase kinase4:
4.09
GRMZM2G121790
Zebosi, B et al. 2024. Conservation and diversification of genes regulating brassinosteroid biosynthesis and signaling bioRxiv preprint. :doi: 10.1101/2024.03.26.586792.     Reference: April 5th, 2024
Gene Product: February 22nd, 2022
Gene Model: April 25th, 2020
33 days agogi2 gigantea2:
3.03
GRMZM5G844173
Fengyun Ran et al. 2024. Studies on Candidate Genes Related to Flowering Time in a Multiparent Population of Maize Derived from Tropical and Temperate Germplasm Plants. 13:1032.     Reference: April 5th, 2024
Gene Product: September 19th, 2012
Variation: April 10th, 2023
Gene Model: September 18th, 2012
33 days agona2 nana plant2:
5.03
GRMZM2G057000
Zebosi, B et al. 2024. Conservation and diversification of genes regulating brassinosteroid biosynthesis and signaling bioRxiv preprint. :doi: 10.1101/2024.03.26.586792.   AT3G19820 (TAIR) Reference: April 5th, 2024
Gene Product: June 13th, 2016
Variation: June 13th, 2016
Gene Model: June 13th, 2016
33 days agobhlh43 bHLH-transcription factor 43:
1.08
GRMZM2G165042
Ranran Huang et al. 2024. Genome-wide characterization of fragile and resistant nucleosomes in response to cold stress in maize Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105760.     Reference: April 5th, 2024
Variation: September 1st, 2003
Gene Model: July 6th, 2017
33 days agoemb27 embryo specific27:
1.09
GRMZM2G153476
Fengyun Ran et al. 2024. Studies on Candidate Genes Related to Flowering Time in a Multiparent Population of Maize Derived from Tropical and Temperate Germplasm Plants. 13:1032.     Reference: April 5th, 2024
Variation: January 10th, 2024
Gene Model: October 18th, 2016
33 days agocyp37 cytochrome P450 37:
4.08
GRMZM2G012391
Zebosi, B et al. 2024. Conservation and diversification of genes regulating brassinosteroid biosynthesis and signaling bioRxiv preprint. :doi: 10.1101/2024.03.26.586792.   AT5G05690 (TAIR) Reference: April 5th, 2024
Gene Product: December 30th, 2022
Variation: September 1st, 2003
Gene Model: April 24th, 2020
33 days agobzr2 BZR-transcription factor 2:
 
   Zebosi, B et al. 2024. Conservation and diversification of genes regulating brassinosteroid biosynthesis and signaling bioRxiv preprint. :doi: 10.1101/2024.03.26.586792.     Reference: April 5th, 2024
Gene Product: May 4th, 2022
33 days agobzr3 BZR-transcription factor 3:
 
   Zebosi, B et al. 2024. Conservation and diversification of genes regulating brassinosteroid biosynthesis and signaling bioRxiv preprint. :doi: 10.1101/2024.03.26.586792.     Reference: April 5th, 2024
Gene Product: May 4th, 2022
33 days agobzr6 BZR-transcription factor 6:
 
   Zebosi, B et al. 2024. Conservation and diversification of genes regulating brassinosteroid biosynthesis and signaling bioRxiv preprint. :doi: 10.1101/2024.03.26.586792.     Reference: April 5th, 2024
Gene Product: May 4th, 2022
33 days agobzr7 BZR-transcription factor 7:
 
   Zebosi, B et al. 2024. Conservation and diversification of genes regulating brassinosteroid biosynthesis and signaling bioRxiv preprint. :doi: 10.1101/2024.03.26.586792.     Reference: April 5th, 2024
Gene Product: May 4th, 2022
33 days agobzr8 BZR-transcription factor 8:
 
   Zebosi, B et al. 2024. Conservation and diversification of genes regulating brassinosteroid biosynthesis and signaling bioRxiv preprint. :doi: 10.1101/2024.03.26.586792.     Reference: April 5th, 2024
Gene Product: May 4th, 2022
33 days agobzr9 BZR-transcription factor 9:
 
   Zebosi, B et al. 2024. Conservation and diversification of genes regulating brassinosteroid biosynthesis and signaling bioRxiv preprint. :doi: 10.1101/2024.03.26.586792.     Reference: April 5th, 2024
Gene Product: May 4th, 2022
33 days agocyp45 cytochrome P450 45:
3.02
GRMZM2G143235
Zebosi, B et al. 2024. Conservation and diversification of genes regulating brassinosteroid biosynthesis and signaling bioRxiv preprint. :doi: 10.1101/2024.03.26.586792.   AT3G13730 (TAIR) Reference: April 5th, 2024
Gene Product: December 30th, 2022
Variation: November 29th, 2023
Gene Model: April 3rd, 2018
33 days agoelfa9 elongation factor 1-alpha9:
9.03
GRMZM2G153541
Yu, HQ et al. 2024. Maize ZmLAZ1-3 gene negatively regulates drought tolerance in transgenic Arabidopsis. BMC Plant Biology. 24:246.     Reference: April 5th, 2024
Gene Product: September 1st, 2003
Variation: April 14th, 2014
Gene Model: April 15th, 2014
33 days agoserk1 somatic embryogenesis receptor-like kinase1:
10.04 - 10.05
GRMZM5G870959
Zebosi, B et al. 2024. Conservation and diversification of genes regulating brassinosteroid biosynthesis and signaling bioRxiv preprint. :doi: 10.1101/2024.03.26.586792.     Reference: April 5th, 2024
Gene Product: September 1st, 2003
Variation: January 25th, 2015
Gene Model: January 25th, 2015
33 days agoserk2 somatic embryogenesis receptor-like kinase2:
5.05
   Zebosi, B et al. 2024. Conservation and diversification of genes regulating brassinosteroid biosynthesis and signaling bioRxiv preprint. :doi: 10.1101/2024.03.26.586792.   AT1G71830 (TAIR)
LOC_Os04g38480 (MSU/TIGR)
Reference: April 5th, 2024
Gene Product: September 1st, 2003
Variation: June 11th, 2015
33 days agoserk3 somatic embryogenesis receptor-like kinase3:
4.05
GRMZM2G150024
Zebosi, B et al. 2024. Conservation and diversification of genes regulating brassinosteroid biosynthesis and signaling bioRxiv preprint. :doi: 10.1101/2024.03.26.586792.     Reference: April 5th, 2024
Gene Product: September 1st, 2003
Variation: July 31st, 2013
Gene Model: June 11th, 2015
33 days agomybr17 MYB-related-transcription factor 17:
3.09
GRMZM2G071977
Ranran Huang et al. 2024. Genome-wide characterization of fragile and resistant nucleosomes in response to cold stress in maize Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105760.     Reference: April 5th, 2024
Variation: September 1st, 2003
Gene Model: August 31st, 2018
33 days agophyB2 phytochromeB2:
9.05
   Fengyun Ran et al. 2024. Studies on Candidate Genes Related to Flowering Time in a Multiparent Population of Maize Derived from Tropical and Temperate Germplasm Plants. 13:1032.     Reference: April 5th, 2024
Gene Product: October 24th, 2007
Variation: May 20th, 2020
33 days agozfl1 zea floricaula/leafy1:
10.06
   Fengyun Ran et al. 2024. Studies on Candidate Genes Related to Flowering Time in a Multiparent Population of Maize Derived from Tropical and Temperate Germplasm Plants. 13:1032.     Reference: April 5th, 2024
Variation: February 20th, 2007
33 days agogst16 glutathione transferase16:
7.03
GRMZM5G895383
Fengyun Ran et al. 2024. Studies on Candidate Genes Related to Flowering Time in a Multiparent Population of Maize Derived from Tropical and Temperate Germplasm Plants. 13:1032.     Reference: April 5th, 2024
Gene Product: September 1st, 2003
Variation: August 17th, 2010
Gene Model: April 18th, 2015
33 days agodlf1 delayed flowering1:
 
   Fengyun Ran et al. 2024. Studies on Candidate Genes Related to Flowering Time in a Multiparent Population of Maize Derived from Tropical and Temperate Germplasm Plants. 13:1032.     Reference: April 5th, 2024
Gene Product: August 21st, 2018
Variation: June 25th, 2020
33 days agomyb38 myb transcription factor38:
 
GRMZM2G084583
Ranran Huang et al. 2024. Genome-wide characterization of fragile and resistant nucleosomes in response to cold stress in maize Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105760.     Reference: April 5th, 2024
Gene Product: September 1st, 2003
Variation: October 20th, 2016
Gene Model: February 23rd, 2015
33 days agohdt102 histone deacetylase102:
8.05
GRMZM2G100146
Fengyun Ran et al. 2024. Studies on Candidate Genes Related to Flowering Time in a Multiparent Population of Maize Derived from Tropical and Temperate Germplasm Plants. 13:1032.     Reference: April 5th, 2024
Gene Product: February 12th, 2020
Variation: November 25th, 2008
Gene Model: July 27th, 2016
33 days agocsu230  :
3.03
   Fengyun Ran et al. 2024. Studies on Candidate Genes Related to Flowering Time in a Multiparent Population of Maize Derived from Tropical and Temperate Germplasm Plants. 13:1032.     Reference: April 5th, 2024
Variation: September 25th, 2007
33 days agopra1 prenylated rab acceptor1:
3.02
GRMZM2G050890
Fengyun Ran et al. 2024. Studies on Candidate Genes Related to Flowering Time in a Multiparent Population of Maize Derived from Tropical and Temperate Germplasm Plants. 13:1032.     Reference: April 5th, 2024
Gene Product: June 17th, 2022
Gene Model: April 23rd, 2022
33 days agobrd1 brassinosteroid-deficient dwarf1:
 
GRMZM2G103773
Zebosi, B et al. 2024. Conservation and diversification of genes regulating brassinosteroid biosynthesis and signaling bioRxiv preprint. :doi: 10.1101/2024.03.26.586792.     Reference: April 5th, 2024
Gene Product: February 18th, 2012
Variation: August 16th, 2019
Gene Model: February 15th, 2012
33 days agopco093477  :
4.01
   Fengyun Ran et al. 2024. Studies on Candidate Genes Related to Flowering Time in a Multiparent Population of Maize Derived from Tropical and Temperate Germplasm Plants. 13:1032.     Reference: April 5th, 2024
Variation: May 20th, 2021
33 days agosweet13b sugars will eventually be exported transporter13b:
 
GRMZM2G021706
Fengyun Ran et al. 2024. Studies on Candidate Genes Related to Flowering Time in a Multiparent Population of Maize Derived from Tropical and Temperate Germplasm Plants. 13:1032.     Reference: April 5th, 2024
Gene Product: November 4th, 2015
Variation: February 17th, 2018
Gene Model: November 3rd, 2015
33 days agosweet13c sugars will eventually be exported transporter13c:
 
GRMZM2G179349
Fengyun Ran et al. 2024. Studies on Candidate Genes Related to Flowering Time in a Multiparent Population of Maize Derived from Tropical and Temperate Germplasm Plants. 13:1032.     Reference: April 5th, 2024
Gene Product: November 4th, 2015
Variation: February 17th, 2018
Gene Model: November 3rd, 2015
33 days agonfyc2 nuclear transcription factor y subunit c2:
 
GRMZM2G110210
Fengyun Ran et al. 2024. Studies on Candidate Genes Related to Flowering Time in a Multiparent Population of Maize Derived from Tropical and Temperate Germplasm Plants. 13:1032.     Reference: April 5th, 2024
Gene Product: August 9th, 2016
Gene Model: August 8th, 2016
33 days agocct14 CO CO-LIKE TIMING OF CAB1 protein domain14:
 
GRMZM2G033962
Fengyun Ran et al. 2024. Studies on Candidate Genes Related to Flowering Time in a Multiparent Population of Maize Derived from Tropical and Temperate Germplasm Plants. 13:1032.     Reference: April 5th, 2024
Gene Product: January 11th, 2018
Variation: November 28th, 2023
Gene Model: January 4th, 2017
33 days agocct2 CO CO-LIKE TIMING OF CAB1 protein domain2:
 
GRMZM2G004483
Fengyun Ran et al. 2024. Studies on Candidate Genes Related to Flowering Time in a Multiparent Population of Maize Derived from Tropical and Temperate Germplasm Plants. 13:1032.     Reference: April 5th, 2024
Gene Product: June 18th, 2018
Variation: December 27th, 2017
Gene Model: December 27th, 2017
33 days agolac4 laccase4:
 
GRMZM2G072780
Bi, YQ et al. 2024. Identification of a novel marker and its associated laccase gene for regulating ear length in tropical and subtropical maize lines. Theor Appl Genet. 137:94.     Reference: April 5th, 2024
Gene Product: March 31st, 2018
Gene Model: March 31st, 2018
33 days agobsu1 brassinosteroid insensitive suppressor protein1:
 
GRMZM2G028700
Zebosi, B et al. 2024. Conservation and diversification of genes regulating brassinosteroid biosynthesis and signaling bioRxiv preprint. :doi: 10.1101/2024.03.26.586792.   AT1G08420 (TAIR) Reference: April 5th, 2024
Gene Product: October 25th, 2021
Variation: April 8th, 2021
Gene Model: June 21st, 2019
33 days agolaz3 lazarus ortholog3:
 
GRMZM2G122045
Yu, HQ et al. 2024. Maize ZmLAZ1-3 gene negatively regulates drought tolerance in transgenic Arabidopsis. BMC Plant Biology. 24:246.     Reference: April 5th, 2024
Gene Product: July 27th, 2019
Gene Model: July 27th, 2019
33 days agoprh48 protein phosphatase homolog48:
 
GRMZM2G112925
Fengyun Ran et al. 2024. Studies on Candidate Genes Related to Flowering Time in a Multiparent Population of Maize Derived from Tropical and Temperate Germplasm Plants. 13:1032.     Reference: April 5th, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
33 days agogsk7 glycogen synthase kinase7:
 
GRMZM2G155836
Zebosi, B et al. 2024. Conservation and diversification of genes regulating brassinosteroid biosynthesis and signaling bioRxiv preprint. :doi: 10.1101/2024.03.26.586792.     Reference: April 5th, 2024
Gene Product: February 22nd, 2022
Gene Model: February 22nd, 2022
33 days agogsk8 glycogen synthase kinase8:
 
GRMZM2G131853
Zebosi, B et al. 2024. Conservation and diversification of genes regulating brassinosteroid biosynthesis and signaling bioRxiv preprint. :doi: 10.1101/2024.03.26.586792.     Reference: April 5th, 2024
Gene Product: February 22nd, 2022
Gene Model: February 22nd, 2022
33 days agogsk9 glycogen synthase kinase9:
 
GRMZM2G109624
Zebosi, B et al. 2024. Conservation and diversification of genes regulating brassinosteroid biosynthesis and signaling bioRxiv preprint. :doi: 10.1101/2024.03.26.586792.     Reference: April 5th, 2024
Gene Product: February 22nd, 2022
Gene Model: February 22nd, 2022
33 days agohis305 histone305:
 
GRMZM2G418258
Fengyun Ran et al. 2024. Studies on Candidate Genes Related to Flowering Time in a Multiparent Population of Maize Derived from Tropical and Temperate Germplasm Plants. 13:1032.     Reference: April 5th, 2024
Gene Product: June 15th, 2021
Gene Model: April 11th, 2022
33 days agosweet13a sugars will eventually be exported transporter13a:
10.03
GRMZM2G173669
Fengyun Ran et al. 2024. Studies on Candidate Genes Related to Flowering Time in a Multiparent Population of Maize Derived from Tropical and Temperate Germplasm Plants. 13:1032.     Reference: April 5th, 2024
Gene Product: November 4th, 2015
Variation: February 17th, 2018
Gene Model: December 28th, 2017
33 days agocamta8 CAMTA-transcription factor 8:
9.04
GRMZM2G431243
Fengyun Ran et al. 2024. Studies on Candidate Genes Related to Flowering Time in a Multiparent Population of Maize Derived from Tropical and Temperate Germplasm Plants. 13:1032.     Reference: April 5th, 2024
Variation: September 25th, 2007
Gene Model: January 12th, 2019
33 days agonatl1 nana2-like1:
 
GRMZM2G455658
Zebosi, B et al. 2024. Conservation and diversification of genes regulating brassinosteroid biosynthesis and signaling bioRxiv preprint. :doi: 10.1101/2024.03.26.586792.   AT3G19820 (TAIR) Reference: April 5th, 2024
Gene Product: June 13th, 2016
Gene Model: June 13th, 2016
34 days agogrrf9 growth-regulating factor9:
5.08 - 5.08
GRMZM5G893117
Dandan Zhang et al. 2024. A new model construction based on the knowledge graph for mining elite polyphenotype genes in crops. Frontiers in Plant Science. 15:1361716.     Reference: April 4th, 2024
Variation: March 30th, 2017
Gene Model: March 30th, 2017
34 days agohsp70-17 heat shock protein70-17:
5.01
GRMZM2G111475
Ze Li et al. 2024. The Heat shock factor 20-HSF4-Cellulose synthase A2 module regulates heat stress tolerance in maize. Plant Cell. :doi: 10.1093/plcell/koae106.     Reference: April 4th, 2024
Gene Product: September 1st, 2003
Gene Model: June 16th, 2018
34 days agohsftf14 HSF-transcription factor 14:
 
   Ze Li et al. 2024. The Heat shock factor 20-HSF4-Cellulose synthase A2 module regulates heat stress tolerance in maize. Plant Cell. :doi: 10.1093/plcell/koae106.     Reference: April 4th, 2024
Gene Product: May 15th, 2020
34 days agohsftf17 HSF-transcription factor 17:
 
   Ze Li et al. 2024. The Heat shock factor 20-HSF4-Cellulose synthase A2 module regulates heat stress tolerance in maize. Plant Cell. :doi: 10.1093/plcell/koae106.     Reference: April 4th, 2024
Gene Product: May 15th, 2020
34 days agoub3 unbranched3:
 
   Dandan Zhang et al. 2024. A new model construction based on the knowledge graph for mining elite polyphenotype genes in crops. Frontiers in Plant Science. 15:1361716.     Reference: April 4th, 2024
Gene Product: July 5th, 2019
Variation: December 17th, 2014
34 days agoub2 unbranched2:
 
   Dandan Zhang et al. 2024. A new model construction based on the knowledge graph for mining elite polyphenotype genes in crops. Frontiers in Plant Science. 15:1361716.     Reference: April 4th, 2024
Gene Product: July 5th, 2019
Variation: December 17th, 2014
34 days agocesa2 cellulose synthase2:
6.05
   Ze Li et al. 2024. The Heat shock factor 20-HSF4-Cellulose synthase A2 module regulates heat stress tolerance in maize. Plant Cell. :doi: 10.1093/plcell/koae106.     Reference: April 4th, 2024
Gene Product: October 7th, 2016
Variation: October 9th, 2012
34 days agofah1 ferulic acid 5-hydroxylase1:
 
AC210173.4_FG005
Ze Li et al. 2024. The Heat shock factor 20-HSF4-Cellulose synthase A2 module regulates heat stress tolerance in maize. Plant Cell. :doi: 10.1093/plcell/koae106.   AT4G36220 (TAIR)
LOC_Os10g36848 (MSU/TIGR)
Reference: April 4th, 2024
Gene Product: May 4th, 2018
Gene Model: June 23rd, 2016
34 days agohsp23 heat shock protein23:
 
GRMZM2G361605
Ze Li et al. 2024. The Heat shock factor 20-HSF4-Cellulose synthase A2 module regulates heat stress tolerance in maize. Plant Cell. :doi: 10.1093/plcell/koae106.     Reference: April 4th, 2024
Gene Product: September 1st, 2003
Gene Model: August 26th, 2020
35 days agopin16 PIN-formed protein16:
 
   Pei, L et al. 2024. A microRNA528-ZmLac3 module regulates low phosphate tolerance in maize. Plant J. :doi: 10.1111/tpj.16741.   AT5G57090 (TAIR) Reference: April 3rd, 2024
Gene Product: April 3rd, 2024
35 days agopin12 PIN-formed protein12:
9.02
GRMZM2G160496
Yuanyuan Liang et al. 2024. Fulvic acid alleviates the stress of low nitrogen on maize by promoting root development and nitrogen metabolism. Physiol Plant. 176:e14249.     Reference: March 13th, 2024
Gene Product: April 3rd, 2024
Gene Model: January 24th, 2013
35 days agopin14 PIN-formed protein14:
3.06
GRMZM2G050089
Chuanxi Peng et al. 2024. Unveiling the Regulatory Role of miRNAs in Internode Elongation: Integrated Analysis of MicroRNA and mRNA Expression Profiles across Diverse Dwarfing Treatments in Maize (Zea mays L.) J Agric Food Chem. :doi: 10.1021/acs.jafc.3c09507.     Reference: March 25th, 2024
Gene Product: April 3rd, 2024
Gene Model: January 24th, 2013
35 days agolyce1 lycopene epsilon cyclase1:
8.05
GRMZM2G012966
Fanyu Wang et al. 2024. Exogenous salicylic acid promotes carotenoid accumulation and antioxidant capacity in germinated maize kernels by regulating carotenoid biosynthetic pathway Food Biosci. 59:103990.     Reference: April 3rd, 2024
Gene Product: December 10th, 2011
Variation: October 9th, 2023
Gene Model: October 3rd, 2011
35 days agops1 pink scutellum1:
5.04 - 5.04
   Fanyu Wang et al. 2024. Exogenous salicylic acid promotes carotenoid accumulation and antioxidant capacity in germinated maize kernels by regulating carotenoid biosynthetic pathway Food Biosci. 59:103990.     Reference: April 3rd, 2024
Gene Product: December 10th, 2011
Variation: March 30th, 2011
35 days agovp9 viviparous9:
7.02
GRMZM2G454952
Fanyu Wang et al. 2024. Exogenous salicylic acid promotes carotenoid accumulation and antioxidant capacity in germinated maize kernels by regulating carotenoid biosynthetic pathway Food Biosci. 59:103990.     Reference: April 3rd, 2024
Gene Product: December 13th, 2011
Variation: September 26th, 2020
Gene Model: March 8th, 2013
35 days agoy1 yellow endosperm1:
6.01
GRMZM2G300348
Fanyu Wang et al. 2024. Exogenous salicylic acid promotes carotenoid accumulation and antioxidant capacity in germinated maize kernels by regulating carotenoid biosynthetic pathway Food Biosci. 59:103990.     Reference: April 3rd, 2024
Gene Product: December 14th, 2011
Variation: August 26th, 2014
Gene Model: September 22nd, 2011
35 days agoaic1 auxin import carrier1:
1.05
GRMZM2G129413
Pei, L et al. 2024. A microRNA528-ZmLac3 module regulates low phosphate tolerance in maize. Plant J. :doi: 10.1111/tpj.16741.   AT2G21050 (TAIR) Reference: April 3rd, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: November 21st, 2015
35 days agohyd2 hydroxylase2:
 
   Fanyu Wang et al. 2024. Exogenous salicylic acid promotes carotenoid accumulation and antioxidant capacity in germinated maize kernels by regulating carotenoid biosynthetic pathway Food Biosci. 59:103990.     Reference: April 3rd, 2024
Gene Product: December 13th, 2011
35 days agopin6 PIN-formed protein6:
 
   Forestan, C; Farinati, Silvia; Varotto, S. 2012. Frontiers in Plant Science. 3:16     Reference: April 16th, 2014
Gene Product: April 3rd, 2024
35 days agopin5 PIN-formed protein5:
 
GRMZM2G025742
Wesley Neher et al. 2023. The maize preligule band is subdivided into distinct domains with contrasting cellular properties prior to ligule outgrowth. Development. :doi: 10.1242/dev.201608.     Reference: September 22nd, 2023
Gene Product: April 3rd, 2024
Gene Model: January 24th, 2013
35 days agopin7 PIN-formed protein7:
 
GRMZM2G148648
Li, CY et al. 2023. Gene expression and eQTL analyses uncover natural variations underlying improvement of important agronomic traits during modern maize breeding Plant J. :doi: 10.1111/tpj.16260.     Reference: April 26th, 2023
Gene Product: April 3rd, 2024
Gene Model: January 24th, 2013
35 days agopin11 PIN-formed protein11:
 
GRMZM2G040911
Adak, A et al. 2024. Deciphering temporal growth patterns in maize: integrative modeling of phenotype dynamics and underlying genomic variations. New Phytol. :doi: 10.1111/nph.19575.     Reference: February 13th, 2024
Gene Product: April 3rd, 2024
Gene Model: January 24th, 2013
35 days agopin13 PIN-formed homolog13:
 
   Craig L Cowling et al. 2023. Roles of auxin pathways in maize biology. J Exp Bot.     Reference: July 26th, 2023
Gene Product: April 3rd, 2024
35 days agocyp14 cytochrome P450 14:
 
GRMZM5G837869
Fanyu Wang et al. 2024. Exogenous salicylic acid promotes carotenoid accumulation and antioxidant capacity in germinated maize kernels by regulating carotenoid biosynthetic pathway Food Biosci. 59:103990.     Reference: April 3rd, 2024
Gene Product: June 3rd, 2015
Variation: June 3rd, 2015
Gene Model: April 8th, 2013
35 days agopin15 PIN-formed protein15:
 
GRMZM2G403601
Li, ZX et al. 2017. Plant Biotechnol J pp.doi: 10.1111/pbi.12751   LOC_Os11g04190 (MSU/TIGR) Reference: May 13th, 2017
Gene Product: April 3rd, 2024
Gene Model: May 13th, 2017
35 days agolac3 laccase3:
 
GRMZM2G169033
Pei, L et al. 2024. A microRNA528-ZmLac3 module regulates low phosphate tolerance in maize. Plant J. :doi: 10.1111/tpj.16741.     Reference: April 3rd, 2024
Gene Product: March 31st, 2018
Gene Model: March 31st, 2018
35 days agolac5 laccase5:
 
GRMZM2G367668
Pei, L et al. 2024. A microRNA528-ZmLac3 module regulates low phosphate tolerance in maize. Plant J. :doi: 10.1111/tpj.16741.     Reference: April 3rd, 2024
Gene Product: March 31st, 2018
Gene Model: March 31st, 2018
35 days agopin8 PIN-formed protein8:
3.07
GRMZM5G839411
Consonni, G et al. 2022. The Italian Research on the Molecular Characterization of Maize Kernel Development Int J Mol Sci. 23:11383.     Reference: September 28th, 2022
Gene Product: April 3rd, 2024
Gene Model: January 24th, 2013
36 days agoapx2 ascorbate peroxidase2:
2.08
GRMZM2G140667
Shah Mahmood Hamidi et al. 2024. Biochemical and Molecular Basis of Chemically Induced Defense Activation in Maize against Banded Leaf and Sheath Blight Disease Curr Issues Mol Biol. 46:3063-3080.     Reference: April 2nd, 2024
Gene Product: September 1st, 2003
Variation: February 16th, 2015
Gene Model: February 16th, 2015
36 days agocat2 catalase2:
1.01
   Shah Mahmood Hamidi et al. 2024. Biochemical and Molecular Basis of Chemically Induced Defense Activation in Maize against Banded Leaf and Sheath Blight Disease Curr Issues Mol Biol. 46:3063-3080.     Reference: April 2nd, 2024
Gene Product: September 1st, 2003
Variation: September 21st, 2012
36 days agocat3 catalase3:
4.11
   Shah Mahmood Hamidi et al. 2024. Biochemical and Molecular Basis of Chemically Induced Defense Activation in Maize against Banded Leaf and Sheath Blight Disease Curr Issues Mol Biol. 46:3063-3080.     Reference: April 2nd, 2024
Gene Product: September 1st, 2003
Variation: March 2nd, 2007
36 days agogeb1 glucan endo-1,3-beta-glucosidase homolog1:
3.05
GRMZM2G065585
Shah Mahmood Hamidi et al. 2024. Biochemical and Molecular Basis of Chemically Induced Defense Activation in Maize against Banded Leaf and Sheath Blight Disease Curr Issues Mol Biol. 46:3063-3080.     Reference: April 2nd, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: October 30th, 2015
36 days agosod14 superoxide dismutase14:
1.07
GRMZM2G106928
Shah Mahmood Hamidi et al. 2024. Biochemical and Molecular Basis of Chemically Induced Defense Activation in Maize against Banded Leaf and Sheath Blight Disease Curr Issues Mol Biol. 46:3063-3080.     Reference: April 2nd, 2024
Gene Product: October 4th, 2021
Gene Model: February 11th, 2020
36 days agoppo1 polyphenol oxidase1:
10.03
GRMZM5G851266
Shah Mahmood Hamidi et al. 2024. Biochemical and Molecular Basis of Chemically Induced Defense Activation in Maize against Banded Leaf and Sheath Blight Disease Curr Issues Mol Biol. 46:3063-3080.     Reference: April 2nd, 2024
Gene Product: September 1st, 2003
Variation: January 21st, 2015
Gene Model: January 21st, 2015
37 days agoereb216 AP2-EREBP-transcription factor 216:
 
   Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: July 5th, 2019
37 days agoereb219 AP2-EREBP-transcription factor 219:
 
   Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: July 5th, 2019
37 days agoereb227 AP2-EREBP-transcription factor 227:
 
   Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: July 5th, 2019
37 days agoereb238 AP2-EREBP-transcription factor 238:
 
   Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: July 5th, 2019
37 days agoplt8 phospholipid transfer protein8:
 
   Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: September 1st, 2003
37 days agoplt9 phospholipid transfer protein9:
 
   Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: September 1st, 2003
37 days agoplt11 phospholipid transfer protein11:
 
   Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: September 1st, 2003
37 days agoereb221 AP2-EREBP-transcription factor 221:
 
   Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: July 5th, 2019
37 days agocox16 cytochrome c oxidase16:
 
   Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: September 1st, 2003
37 days agocox12 cytochrome c oxidase12:
 
   Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: September 1st, 2003
37 days agocox13 cytochrome c oxidase13:
 
   Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: September 1st, 2003
37 days agocox14 cytochrome c oxidase14:
 
   Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: September 1st, 2003
37 days agoplt57 phospholipid transfer protein57:
 
   Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: September 1st, 2003
37 days agoplt33 phospholipid transfer protein33:
1.02
GRMZM5G850455
Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: September 1st, 2003
Gene Model: April 12th, 2021
37 days agoplt2 phospholipid transfer protein homolog2:
3.09
   Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
37 days agoc2 colorless2:
4.08
   Souza Mello, C et al. 2012. Sodium nitroprusside modulates gene expression involved in glutathione synthesis in Zea mays leaves Biol Plant. 56:383–388.     Reference: April 1st, 2024
Gene Product: September 1st, 2003
Variation: July 12th, 2021
37 days agocat1 catalase1:
5.03
   Zhang, YF et al. 2024. Adenosine triphosphate alleviates high temperature-enhanced glyphosate toxicity in maize seedlings Plant Physiol Biochem. 210:108550.     Reference: April 1st, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
37 days agogpc2 glyceraldehyde-3-phosphate dehydrogenase2:
6.00 - 6.01
   Silveira, PR et al. 2019. Changes in leaf gas exchange, chlorophyll a fluorescence, and antioxidantsin maize leaves infected by Exserohilum turcicum Biol Plant. 63:643-653.     Reference: April 1st, 2024
Gene Product: September 1st, 2003
Variation: December 13th, 2012
37 days agoereb144 AP2-EREBP-transcription factor 144:
5.04
GRMZM2G005301
Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Variation: September 1st, 2003
Gene Model: June 28th, 2018
37 days agoplt10 phospholipid transfer protein10:
10.01
GRMZM5G898755
Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: September 16th, 2017
37 days agoereb102 AP2-EREBP-transcription factor 102:
7.02
GRMZM2G052667
Xun-Ge Zhu et al. 2024. Ancient Duplication and Lineage-Specific Transposition Determine Evolutionary Trajectory of ERF Subfamily across Angiosperms Int J Mol Sci. 25:3941.     Reference: April 1st, 2024
Variation: September 1st, 2003
Gene Model: September 6th, 2018
37 days agoplt7 phospholipid transfer protein7:
3.09
GRMZM2G107839
Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: September 16th, 2017
37 days agoereb148 AP2-EREBP-transcription factor 148:
 
   Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Variation: May 4th, 2016
37 days agoereb156 AP2-EREBP-transcription factor 156:
 
   Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Variation: June 11th, 2016
37 days agoereb185 AP2-EREBP-transcription factor 185:
 
   Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: April 10th, 2013
37 days agoereb61 AP2-EREBP-transcription factor 61:
 
   Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Variation: March 29th, 2021
37 days agoereb240 AP2-EREBP-transcription factor 240:
10.04
GRMZM2G424348
Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: July 5th, 2019
Variation: November 11th, 2022
Gene Model: September 2nd, 2018
37 days agogst23 glutathione transferase23:
7.02
GRMZM2G416632
Silveira, PR et al. 2019. Changes in leaf gas exchange, chlorophyll a fluorescence, and antioxidantsin maize leaves infected by Exserohilum turcicum Biol Plant. 63:643-653.     Reference: April 1st, 2024
Gene Product: September 1st, 2003
Variation: August 20th, 2010
Gene Model: July 27th, 2016
37 days agoplt1 phospholipid transfer protein homolog1:
3.06
GRMZM2G101958
Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: September 1st, 2003
Variation: March 17th, 2015
Gene Model: March 12th, 2015
37 days agocox15 cytochrome c oxidase15:
1.06
   Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: September 1st, 2003
Variation: July 29th, 2004
37 days agogshs2 glutathione synthetase2:
3.05
GRMZM2G155974
Souza Mello, C et al. 2012. Sodium nitroprusside modulates gene expression involved in glutathione synthesis in Zea mays leaves Biol Plant. 56:383–388.     Reference: April 1st, 2024
Gene Product: December 2nd, 2018
Variation: September 25th, 2007
Gene Model: December 1st, 2018
37 days agocox11 cytochrome c oxidase11:
 
GRMZM2G338696
Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: September 1st, 2003
Gene Model: November 7th, 2019
37 days agoplt3 phospholipid transfer protein homolog3:
3.06
GRMZM2G126397
Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: September 1st, 2003
Variation: January 8th, 2017
Gene Model: January 6th, 2017
37 days agodbf2 DRE-binding protein 2:
9.04
GRMZM5G889719
Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: April 10th, 2013
Gene Model: July 27th, 2016
37 days agoereb237 AP2-EREBP-transcription factor 237:
9.03
   Amaal Maghraby et al. 2024. Genome-wide identification and evolutionary analysis of the AP2/EREBP, COX and LTP genes in Zea mays L. under drought stress. Sci. Rep.. 14:7610.     Reference: April 1st, 2024
Gene Product: July 5th, 2019
40 days agoZm00001d007549  :
 
   Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.   LOC_Os11g37650 (MSU/TIGR)
Os11g0587000 (Gramene)
Reference: March 29th, 2024
Gene Product: January 6th, 2023
40 days agoadf14 actin depolymerizing factor14:
 
   Ruisi Yang et al. 2024. The Role of the ADF Gene Family in Maize Response to Abiotic Stresses Agronomy. 14:717.     Reference: March 29th, 2024
Gene Product: March 4th, 2020
40 days agonced11 nine-cis-epoxycarotenoid dioxygenase11:
 
   Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: September 20th, 2012
40 days agonced12 nine-cis-epoxycarotenoid dioxygenase12:
 
   Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: September 20th, 2012
40 days agonced13 nine-cis-epoxycarotenoid dioxygenase13:
 
   Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: September 20th, 2012
40 days agonced14 nine-cis-epoxycarotenoid dioxygenase14:
 
   Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: September 20th, 2012
40 days agoaaap72 amino acid/auxin permease72:
 
   Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
40 days agocaat2 cationic amino acid transporter2:
 
   Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 29th, 2024
40 days agocaat3 cationic amino acid transporter3:
 
   Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 29th, 2024
40 days agocaat4 cationic amino acid transporter4:
 
   Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 29th, 2024
40 days agocaat6 cationic amino acid transporter6:
 
   Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 29th, 2024
40 days agocaat7 cationic amino acid transporter7:
 
   Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 29th, 2024
40 days agocaat9 cationic amino acid transporter9:
 
   Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 29th, 2024
40 days agocaat12 cationic amino acid transporter12:
 
   Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 29th, 2024
40 days agocaat13 cationic amino acid transporter13:
 
   Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 29th, 2024
40 days agocaat14 cationic amino acid transporter14:
 
   Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 29th, 2024
40 days agoadf15 actin depolymerizing factor15:
 
   Ruisi Yang et al. 2024. The Role of the ADF Gene Family in Maize Response to Abiotic Stresses Agronomy. 14:717.     Reference: March 29th, 2024
Gene Product: March 4th, 2020
40 days agocaat15 cationic amino acid transporter15:
 
       Gene Product: March 29th, 2024
40 days agoLOC100285888  :
 
       Gene Product: March 29th, 2024
40 days agoLOC100284962  :
 
       Gene Product: March 29th, 2024
40 days agobap2 basal layer antifungal protein2:
4.05
   He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.     Reference: March 29th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
40 days agobetl3 basal endosperm transfer layer3:
3.05
   He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.     Reference: March 29th, 2024
Variation: October 21st, 2013
40 days agocap1 calcium pump1:
8.05
   He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.     Reference: March 29th, 2024
Gene Product: May 20th, 2015
Variation: September 1st, 2003
40 days agoadf1 actin depolymerizing factor1:
7.03
   Ruisi Yang et al. 2024. The Role of the ADF Gene Family in Maize Response to Abiotic Stresses Agronomy. 14:717.     Reference: March 29th, 2024
Gene Product: September 1st, 2003
Variation: July 22nd, 2015
40 days agosca1 short chain alcohol dehydrogenase1:
5.00
GRMZM2G332976
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: September 1st, 2003
Variation: July 27th, 2013
Gene Model: June 23rd, 2015
40 days agoadf4 Actin-depolymerizing factor 4:
6.01
   Ruisi Yang et al. 2024. The Role of the ADF Gene Family in Maize Response to Abiotic Stresses Agronomy. 14:717.     Reference: March 29th, 2024
Gene Product: March 4th, 2020
40 days agoao3 aldehyde oxidase3:
1.11
GRMZM2G019799
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: February 5th, 2013
Gene Model: February 5th, 2013
40 days agocaat11 cationic amino acid transporter11:
4.06
GRMZM2G045704
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 29th, 2024
Gene Model: May 24th, 2021
40 days agosweet1a sugars will eventually be exported transporter1a:
3.06
GRMZM2G039365
He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.     Reference: March 29th, 2024
Gene Product: November 4th, 2015
Gene Model: November 3rd, 2015
40 days agoalmt1 aluminum-activated malate transporter homolog1:
2.04
AC233887.1_FG005
He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.   AT1G08440 (TAIR) Reference: March 29th, 2024
Gene Product: March 16th, 2022
Gene Model: April 28th, 2021
40 days agopsy2 phytoene synthase2:
8.07
GRMZM2G149317
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: December 14th, 2011
Variation: May 12th, 2013
Gene Model: June 8th, 2012
40 days agotcrr1 transfer cell response regulator1:
4.05
GRMZM2G016145
He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.     Reference: March 29th, 2024
Gene Product: January 16th, 2021
Variation: December 31st, 2015
Gene Model: December 31st, 2015
40 days agolw1 lemon white1:
1.10
GRMZM2G027059
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: June 20th, 2012
Variation: March 10th, 2016
Gene Model: January 8th, 2014
40 days agolw2 lemon white2:
5.05
GRMZM2G137409
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: February 8th, 2019
Variation: October 22nd, 2020
Gene Model: February 8th, 2019
40 days agovp5 viviparous5:
1.02 - 1.02
   Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: December 13th, 2011
Variation: March 4th, 2014
40 days agowc1 white cap1:
9.07
   Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: September 20th, 2012
Variation: October 5th, 2012
40 days agoy9 pale yellow9:
10.03 - 10.03
GRMZM2G011746
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: December 10th, 2011
Variation: September 28th, 2011
Gene Model: September 22nd, 2011
40 days agocrti3 carotene isomerase3:
5.00
GRMZM2G144273
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: December 10th, 2011
Gene Model: June 14th, 2018
40 days agommc0381  :
2.08
GRMZM2G003409
He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.     Reference: March 29th, 2024
Gene Product: April 8th, 2022
Gene Model: February 6th, 2018
40 days agoadf5 actin depolymerizing factor5:
1.03
GRMZM2G077942
Ruisi Yang et al. 2024. The Role of the ADF Gene Family in Maize Response to Abiotic Stresses Agronomy. 14:717.     Reference: March 29th, 2024
Gene Product: March 4th, 2020
Variation: March 4th, 2016
Gene Model: March 3rd, 2016
40 days agoaaap69 amino acid/auxin permease69:
10.04
GRMZM2G173597
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
Variation: March 18th, 2021
Gene Model: December 12th, 2017
40 days agoippi1 isopentenyl pyrophosphate isomerase1:
7.03
GRMZM2G108285
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: December 10th, 2011
Variation: September 1st, 2003
Gene Model: September 11th, 2018
40 days agoadf2 actin depolymerizing factor2:
7.03
GRMZM2G097122
Ruisi Yang et al. 2024. The Role of the ADF Gene Family in Maize Response to Abiotic Stresses Agronomy. 14:717.     Reference: March 29th, 2024
Gene Product: September 1st, 2003
Variation: July 22nd, 2015
Gene Model: July 22nd, 2015
40 days agobetl4 basal endosperm transfer layer4:
 
GRMZM2G073290
He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.     Reference: March 29th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: July 4th, 2014
40 days agocyp15 cytochrome P450 15:
4.09
GRMZM2G010221
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: April 29th, 2013
Gene Model: May 31st, 2018
40 days agoadf3 actin depolymerizing factor3:
1.11
GRMZM2G060702
Ruisi Yang et al. 2024. The Role of the ADF Gene Family in Maize Response to Abiotic Stresses Agronomy. 14:717.     Reference: March 29th, 2024
Gene Product: March 4th, 2020
Variation: October 19th, 2017
Gene Model: October 19th, 2017
40 days agocmk1 cytidine methyl kinase1:
3.06
GRMZM5G859195
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: October 9th, 2014
Gene Model: October 4th, 2014
40 days agophp20075a(gast)  :
10.01
GRMZM2G172596
He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.     Reference: March 29th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: April 25th, 2017
40 days agosweet4c sugars will eventually be exported transporter4c:
5.04
GRMZM2G137954
He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.   LOC_Os02g19820 (MSU/TIGR) Reference: March 29th, 2024
Gene Product: November 4th, 2015
Variation: January 11th, 2023
Gene Model: November 3rd, 2015
40 days agodxr2 deoxy xylulose reductoisomerase2:
8.01
GRMZM2G036290
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: December 10th, 2011
Gene Model: September 16th, 2018
40 days agoAY110632  :
1.03
GRMZM2G032047
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Variation: July 29th, 2004
Gene Model: June 8th, 2017
40 days agoaaap65 amino acid/auxin permease65:
10.02
GRMZM2G433162
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
Gene Model: December 28th, 2017
40 days agomeg1 maternally expressed gene1:
7.01
   He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.     Reference: March 29th, 2024
Variation: January 2nd, 2022
40 days agodnaJ2 DnaJ/Hsp40 2:
1.03
GRMZM2G703555
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: September 1st, 2003
Gene Model: February 5th, 2020
40 days agocl7681_1a  :
1.09
GRMZM2G088083
    Gene Product: March 29th, 2024
Gene Model: February 14th, 2020
40 days agocaat5 cationic amino acid transporter5:
1.09
   Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 29th, 2024
40 days agoadf12 actin depolymerizing factor12:
2.03
GRMZM2G071327
Ruisi Yang et al. 2024. The Role of the ADF Gene Family in Maize Response to Abiotic Stresses Agronomy. 14:717.     Reference: March 29th, 2024
Gene Product: March 4th, 2020
Gene Model: March 4th, 2020
40 days agofps3 farnesyl diphosphate synthase3:
3.07
GRMZM2G098569
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: August 18th, 2015
Variation: August 12th, 2022
Gene Model: August 18th, 2015
40 days agomeg3 maternally expressed gene3:
7.01
GRMZM2G344323
He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.     Reference: March 29th, 2024
Variation: October 25th, 2009
Gene Model: August 29th, 2014
40 days agozep2 zeaxanthin epoxidase2:
 
GRMZM5G848550
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: December 10th, 2011
Variation: August 29th, 2011
Gene Model: April 8th, 2013
40 days agohyd3 hydroxylase3:
 
GRMZM2G152135
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: December 13th, 2011
Variation: October 22nd, 2020
Gene Model: April 9th, 2013
40 days agohyd4 hydroxylase4:
 
GRMZM2G164318
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: December 13th, 2011
Variation: September 3rd, 2011
Gene Model: April 9th, 2013
40 days agohyd5 hydroxylase5:
 
GRMZM2G382534
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: December 13th, 2011
Variation: September 3rd, 2011
Gene Model: April 9th, 2013
40 days agodxs3 deoxy xylulose synthase3:
 
GRMZM2G173641
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: August 17th, 2004
Variation: February 15th, 2012
Gene Model: December 9th, 2011
40 days agohyd7 hydroxylase7:
 
GRMZM2G163683
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: December 13th, 2011
Variation: February 17th, 2012
Gene Model: April 9th, 2013
40 days agoccd8 carotenoid cleavage dioxygenase8:
 
GRMZM2G446858
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: September 20th, 2012
Variation: September 21st, 2012
Gene Model: September 20th, 2012
40 days agocrti1 carotene isomerase1:
 
GRMZM2G108457
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: December 10th, 2011
Gene Model: April 8th, 2013
40 days agocrti2 carotene isomerase2:
 
GRMZM2G106531
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: December 10th, 2011
Gene Model: April 8th, 2013
40 days agoggps1 geranylgeranyl pyrophosphate synthase1:
 
AC194970.5_FG001
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: April 8th, 2013
Gene Model: April 8th, 2013
40 days agoippi2 isopentenyl pyrophosphate isomerase2:
 
GRMZM2G145029
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: December 10th, 2011
Gene Model: April 8th, 2013
40 days agoippi3 isopentenyl pyrophosphate isomerase3:
 
GRMZM2G133082
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: December 10th, 2011
Gene Model: April 8th, 2013
40 days agoggps4 geranylgeranyl pyrophosphate synthase4:
 
GRMZM2G005909
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: April 8th, 2013
Gene Model: April 8th, 2013
40 days agocyp13 cytochrome P450 13:
 
GRMZM5G837869
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: April 8th, 2013
Variation: July 8th, 2017
Gene Model: April 8th, 2013
40 days agovde1 violaxanthin de-epoxidase1:
 
GRMZM2G027219
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: December 13th, 2011
Gene Model: April 9th, 2013
40 days agomeg10 maternally expressed gene10:
 
GRMZM2G086827
He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.     Reference: March 29th, 2024
Variation: August 29th, 2014
Gene Model: August 29th, 2014
40 days agomeg13 maternally expressed gene13:
 
GRMZM2G175912
He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.     Reference: March 29th, 2024
Variation: August 29th, 2014
Gene Model: August 29th, 2014
40 days agonced2 nine-cis-epoxycarotenoid dioxygenase2:
 
GRMZM2G407181
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: September 20th, 2012
Gene Model: October 4th, 2014
40 days agonced4 nine-cis-epoxycarotenoid dioxygenase4:
 
GRMZM2G408158
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: September 20th, 2012
Gene Model: October 4th, 2014
40 days agonced7 nine-cis-epoxycarotenoid dioxygenase7:
 
GRMZM2G330848
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: September 20th, 2012
Gene Model: October 4th, 2014
40 days agonced6 nine-cis-epoxycarotenoid dioxygenase6:
 
GRMZM2G110192
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: September 20th, 2012
Gene Model: October 4th, 2014
40 days agonced8 nine-cis-epoxycarotenoid dioxygenase8:
 
GRMZM2G150363
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: September 20th, 2012
Gene Model: October 4th, 2014
40 days agonced9 nine-cis-epoxycarotenoid dioxygenase9:
 
GRMZM5G838285
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: September 20th, 2012
Gene Model: October 4th, 2014
40 days agoao4 aldehyde oxidase4:
 
GRMZM2G141473
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: October 4th, 2014
Gene Model: October 4th, 2014
40 days agoao5 aldehyde oxidase5:
 
GRMZM2G406830
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: October 4th, 2014
Gene Model: October 4th, 2014
40 days agoccd7 carotenoid cleavage dioxygenase7:
 
GRMZM2G158657
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.   AT2G44990 (TAIR) Reference: March 29th, 2024
Gene Product: September 20th, 2012
Gene Model: October 4th, 2014
40 days agomecs1 methyl erythritol cyclodiphosphate synthase1:
 
GRMZM5G835542
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: October 4th, 2014
Gene Model: October 4th, 2014
40 days agomecs2 methyl erythritol cyclodiphosphate synthase2:
 
AC209374.4_FG002
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: October 4th, 2014
Gene Model: October 4th, 2014
40 days agodmes2 diphosphocytidyl methyl erythritol synthase2:
 
GRMZM2G172032
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: March 7th, 2014
Gene Model: October 4th, 2014
40 days agoplt14 phospholipid transfer protein14:
4.08
GRMZM2G406552
He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.     Reference: March 29th, 2024
Gene Product: September 1st, 2003
Gene Model: April 24th, 2020
40 days agofps2 farnesyl diphosphate synthase2:
 
GRMZM2G147721
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: August 18th, 2015
Variation: August 12th, 2022
Gene Model: August 18th, 2015
40 days agosweet15b sugars will eventually be exported transporter15b:
 
GRMZM5G872392
He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.     Reference: March 29th, 2024
Gene Product: November 4th, 2015
Gene Model: November 3rd, 2015
40 days agophos2 phosphate transporter2:
 
GRMZM2G466545
He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.   AT3G23430 (TAIR) Reference: March 29th, 2024
Gene Product: February 27th, 2016
Variation: February 27th, 2016
Gene Model: February 27th, 2016
40 days agovde3 violaxanthin de-epoxidase3:
 
GRMZM2G408706
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: December 13th, 2011
Gene Model: August 11th, 2016
40 days agoburp3 BURP domain-containing protein-RD22-like3:
 
GRMZM2G032145
He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.     Reference: March 29th, 2024
Gene Product: August 18th, 2017
Variation: August 18th, 2017
Gene Model: August 18th, 2017
40 days agocopt2 copper transporter2:
 
GRMZM2G042412
He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.     Reference: March 29th, 2024
Gene Product: July 24th, 2018
Gene Model: July 24th, 2018
40 days agoao2 aldehyde oxidase2:
5.01
GRMZM5G899851
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: October 4th, 2014
Gene Model: July 7th, 2017
40 days agoadf6 actin depolymerizing factor6:
 
GRMZM2G130678
Ruisi Yang et al. 2024. The Role of the ADF Gene Family in Maize Response to Abiotic Stresses Agronomy. 14:717.     Reference: March 29th, 2024
Gene Product: March 4th, 2020
Gene Model: March 4th, 2020
40 days agoadf7 actin depolymerizing factor7:
 
GRMZM2G463471
Ruisi Yang et al. 2024. The Role of the ADF Gene Family in Maize Response to Abiotic Stresses Agronomy. 14:717.     Reference: March 29th, 2024
Gene Product: March 4th, 2020
Gene Model: March 4th, 2020
40 days agoadf8 actin depolymerizing factor8:
 
GRMZM2G147775
Ruisi Yang et al. 2024. The Role of the ADF Gene Family in Maize Response to Abiotic Stresses Agronomy. 14:717.     Reference: March 29th, 2024
Gene Product: March 4th, 2020
Gene Model: March 4th, 2020
40 days agoadf9 actin depolymerizing factor9:
 
GRMZM2G108807
Ruisi Yang et al. 2024. The Role of the ADF Gene Family in Maize Response to Abiotic Stresses Agronomy. 14:717.     Reference: March 29th, 2024
Gene Product: March 4th, 2020
Gene Model: March 4th, 2020
40 days agoadf10 actin depolymerizing factor10:
 
GRMZM2G002825
Ruisi Yang et al. 2024. The Role of the ADF Gene Family in Maize Response to Abiotic Stresses Agronomy. 14:717.     Reference: March 29th, 2024
Gene Product: March 4th, 2020
Gene Model: March 4th, 2020
40 days agoadf11 actin depolymerizing factor11:
 
GRMZM2G064875
Ruisi Yang et al. 2024. The Role of the ADF Gene Family in Maize Response to Abiotic Stresses Agronomy. 14:717.     Reference: March 29th, 2024
Gene Product: March 4th, 2020
Gene Model: March 4th, 2020
40 days agoadf13 actin depolymerizing factor13:
 
GRMZM2G015127
Ruisi Yang et al. 2024. The Role of the ADF Gene Family in Maize Response to Abiotic Stresses Agronomy. 14:717.     Reference: March 29th, 2024
Gene Product: March 4th, 2020
Gene Model: March 4th, 2020
40 days agoccd9 carotenoid cleavage dioxygenase9:
 
GRMZM2G164967
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: September 20th, 2012
Gene Model: June 25th, 2020
40 days agoccd10 carotenoid cleavage dioxygenase10:
 
AC197699.3_FG002
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: September 20th, 2012
Gene Model: June 25th, 2020
40 days agocaat8 cationic amino acid transporter8:
5.03
GRMZM2G434910
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 29th, 2024
Gene Model: May 9th, 2020
40 days agoaaap56 amino acid/auxin permease56:
 
GRMZM2G096407
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
Gene Model: January 8th, 2021
40 days agotcrr2 transfer cell response regulator2:
 
GRMZM2G090264
He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.     Reference: March 29th, 2024
Gene Product: January 16th, 2021
Gene Model: January 16th, 2021
40 days agoaaap14 amino acid/auxin permease14:
 
GRMZM2G082434
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
Gene Model: March 26th, 2021
40 days agoaaap6 amino acid/auxin permease6:
 
GRMZM2G042933
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
Gene Model: March 30th, 2021
40 days agoaaap9 amino acid/auxin permease9:
 
GRMZM2G155491
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
Gene Model: March 30th, 2021
40 days agoaaap17 amino acid/auxin permease17:
 
GRMZM2G032304
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
Gene Model: March 30th, 2021
40 days agoaaap18 amino acid/auxin permease18:
 
GRMZM2G031167
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
Gene Model: March 30th, 2021
40 days agoaaap19 amino acid/auxin permease19:
 
GRMZM2G136288
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
Gene Model: March 30th, 2021
40 days agoaaap21 amino acid/auxin permease21:
 
GRMZM2G110195
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
Gene Model: March 30th, 2021
40 days agoaaap22 amino acid/auxin permease22:
 
GRMZM5G830545
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
Gene Model: March 30th, 2021
40 days agoaaap29 amino acid/auxin permease29:
 
GRMZM2G180547
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
Gene Model: March 30th, 2021
40 days agoaaap33 amino acid/auxin permease33:
 
GRMZM2G332505
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
Gene Model: March 30th, 2021
40 days agoaaap46 amino acid/auxin permease46:
 
GRMZM2G331283
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
Gene Model: March 31st, 2021
40 days agoaaap52 amino acid/auxin permease52:
 
GRMZM2G108023
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
Gene Model: March 31st, 2021
40 days agoaaap54 amino acid/auxin permease54:
 
GRMZM2G164814
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
Gene Model: March 31st, 2021
40 days agoaaap55 amino acid/auxin permease55:
 
GRMZM2G092945
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.   LOC_Os01g65670 (MSU/TIGR)
Os01g0878700 (Gramene)
Reference: March 29th, 2024
Gene Product: March 31st, 2021
Variation: April 22nd, 2022
Gene Model: March 31st, 2021
40 days agoaaap59 amino acid/auxin permease59:
 
GRMZM2G145989
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
Gene Model: March 31st, 2021
40 days agoaaap60 amino acid/auxin permease60:
 
GRMZM2G136300
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
Gene Model: March 31st, 2021
40 days agoaaap64 amino acid/auxin permease64:
 
GRMZM2G076593
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
Gene Model: March 31st, 2021
40 days agoaaap66 amino acid/auxin permease66:
 
GRMZM2G157168
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
Gene Model: March 31st, 2021
40 days agoaaap67 amino acid/auxin permease67:
 
GRMZM2G413943
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 31st, 2021
Gene Model: March 31st, 2021
40 days agomads85 MADS-transcription factor 85:
 
   He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.     Reference: March 29th, 2024
Gene Product: September 10th, 2021
40 days agocl48777_1e  :
6.00
GRMZM2G175989
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: January 6th, 2023
Gene Model: May 23rd, 2022
40 days agodmes1 diphosphocytidyl methyl erythritol synthase1:
6.01
GRMZM5G856881
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: March 7th, 2014
Gene Model: October 4th, 2014
40 days agodxs1 deoxy xylulose synthase 1:
6.05
GRMZM2G137151
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: August 17th, 2004
Variation: June 20th, 2012
Gene Model: December 9th, 2011
40 days agodxs2 deoxy xylulose synthase 2:
9.03
GRMZM2G493395
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: August 17th, 2004
Variation: October 22nd, 2020
Gene Model: December 9th, 2011
40 days agocaat1 cationic amino acid transporter1:
1.08
GRMZM5G805732
Islam, MN et al. 2024. Genome-wide identification following functional analysis of amino acid permease and cationic amino acid transporter gene families in maize and their role in drought stress S Afr J Bot. 168:360-371.     Reference: March 29th, 2024
Gene Product: March 29th, 2024
Variation: February 15th, 2007
Gene Model: February 15th, 2019
40 days agobetl10 basal endosperm transfer layer10:
3.05
GRMZM2G091445
He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.     Reference: March 29th, 2024
Variation: October 21st, 2013
Gene Model: July 4th, 2014
40 days agodxr1 deoxy xylulose reductoisomerase1:
3.04
GRMZM2G056975
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: December 10th, 2011
Variation: May 11th, 2005
Gene Model: December 9th, 2011
40 days agobetl9 basal endosperm transfer layer9:
3.05
GRMZM2G087413
He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.     Reference: March 29th, 2024
Gene Product: September 1st, 2003
Variation: October 8th, 2009
Gene Model: July 4th, 2014
40 days agoao1 aldehyde oxidase1:
1.11
GRMZM2G141535
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: May 2nd, 2012
Variation: May 30th, 2012
Gene Model: October 4th, 2014
40 days agopsei8 cystatin8:
1.04
GRMZM2G401374
He, J et al. 2024. Toward unveiling transcriptome dynamics and regulatory modules at the maternal/filial interface of developing maize kernel. Plant J. :doi: 10.1111/tpj.16733.     Reference: March 29th, 2024
Gene Product: April 21st, 2008
Variation: April 21st, 2008
Gene Model: July 28th, 2016
40 days agovp14 viviparous14:
1.08
GRMZM2G014392
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: September 20th, 2012
Variation: June 25th, 2007
Gene Model: May 13th, 2011
40 days agofps1 farnesyl pyrophosphate synthase1:
8.03
GRMZM2G168681
Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: August 18th, 2015
Variation: August 12th, 2022
Gene Model: April 8th, 2013
40 days agopsy3 phytoene synthase3:
7.03
   Yin, PF et al. 2024. Linkage and association mapping in multi-parental populations reveal the genetic basis of carotenoid variation in maize kernels. Plant Biotechnol J.     Reference: March 29th, 2024
Gene Product: December 14th, 2011
Variation: October 8th, 2008
41 days agoGRMZM2G154685  :
 
   Xue, M et al. 2024. Heat-Resistant Inbred Lines Coordinate the Heat Response Gene Expression Remarkably in Maize (Zea mays L.). Genes. 15:289.     Reference: March 28th, 2024
Gene Product: February 10th, 2024
41 days agopebp21 phosphatidylethanolamine-binding protein21:
 
GRMZM2G019993
Jose M Romero et al. 2024. CONSTANS, a HUB for all seasons: How photoperiod pervades plant physiology regulatory circuits. Plant Cell. :doi: 10.1093/plcell/koae090.     Reference: March 28th, 2024
Gene Product: March 19th, 2024
Variation: December 13th, 2010
Gene Model: July 28th, 2016
41 days agoapx1 ascorbate peroxidase homolog:
9.04
GRMZM2G054300
Xue, M et al. 2024. Heat-Resistant Inbred Lines Coordinate the Heat Response Gene Expression Remarkably in Maize (Zea mays L.). Genes. 15:289.     Reference: March 28th, 2024
Gene Product: October 15th, 2020
Variation: August 10th, 2012
Gene Model: June 19th, 2013
41 days agomyb157 MYB-transcription factor 157:
 
   Yizhu Wang et al. 2024. Genome-Wide Association Studies on the Kernel Row Number in a Multi-Parent Maize Population Int J Mol Sci. 25:3377.     Reference: March 28th, 2024
Variation: June 23rd, 2021
41 days agohsp26 heat shock protein26:
1.03
GRMZM2G149647
Xue, M et al. 2024. Heat-Resistant Inbred Lines Coordinate the Heat Response Gene Expression Remarkably in Maize (Zea mays L.). Genes. 15:289.     Reference: March 28th, 2024
Gene Product: September 1st, 2003
Variation: January 30th, 2015
Gene Model: January 30th, 2015
41 days agopdi1 protein disulfide isomerase1:
4.03
GRMZM2G091481
Xue, M et al. 2024. Heat-Resistant Inbred Lines Coordinate the Heat Response Gene Expression Remarkably in Maize (Zea mays L.). Genes. 15:289.     Reference: March 28th, 2024
Gene Product: September 1st, 2003
Variation: December 23rd, 2015
Gene Model: October 23rd, 2013
41 days agocrt4 calreticulin4:
 
GRMZM2G074687
Xue, M et al. 2024. Heat-Resistant Inbred Lines Coordinate the Heat Response Gene Expression Remarkably in Maize (Zea mays L.). Genes. 15:289.     Reference: March 28th, 2024
Gene Product: February 12th, 2007
Gene Model: August 26th, 2020
41 days agombf2 multi-protein bridging factor homolog2:
 
GRMZM2G051135
Xue, M et al. 2024. Heat-Resistant Inbred Lines Coordinate the Heat Response Gene Expression Remarkably in Maize (Zea mays L.). Genes. 15:289.     Reference: March 28th, 2024
Gene Product: June 30th, 2021
Gene Model: June 30th, 2021
41 days agocct10 CO CO-LIKE TIMING OF CAB1 protein domain10:
 
GRMZM2G106108
Jose M Romero et al. 2024. CONSTANS, a HUB for all seasons: How photoperiod pervades plant physiology regulatory circuits. Plant Cell. :doi: 10.1093/plcell/koae090.     Reference: March 28th, 2024
Gene Product: June 18th, 2018
Gene Model: August 17th, 2021
42 days agochr101 chromatin complex subunit A 101:
2.10
   ChenXi Gao et al. 2024. Analysis of Transposable Element Associated Epigenetic Regulation under Drought in Maize Sci Agric Sin. 57:1034-1048..     Reference: March 27th, 2024
Variation: June 9th, 2018
42 days agopebp1 phosphatidylethanolamine-binding protein1:
 
   ChenXi Gao et al. 2024. Analysis of Transposable Element Associated Epigenetic Regulation under Drought in Maize Sci Agric Sin. 57:1034-1048..     Reference: March 27th, 2024
Gene Product: March 19th, 2024
Variation: November 17th, 2010
42 days agopebp9 phosphatidylethanolamine-binding protein9:
 
   ChenXi Gao et al. 2024. Analysis of Transposable Element Associated Epigenetic Regulation under Drought in Maize Sci Agric Sin. 57:1034-1048..     Reference: March 27th, 2024
Gene Product: March 19th, 2024
Variation: December 8th, 2010
42 days agopebp10 phosphatidylethanolamine-binding protein10:
 
   ChenXi Gao et al. 2024. Analysis of Transposable Element Associated Epigenetic Regulation under Drought in Maize Sci Agric Sin. 57:1034-1048..     Reference: March 27th, 2024
Gene Product: March 19th, 2024
Variation: December 8th, 2010
42 days agopebp11 phosphatidylethanolamine-binding protein11:
 
   ChenXi Gao et al. 2024. Analysis of Transposable Element Associated Epigenetic Regulation under Drought in Maize Sci Agric Sin. 57:1034-1048..     Reference: March 27th, 2024
Gene Product: March 19th, 2024
Variation: December 10th, 2010
42 days agomet1 DNA methyl transferase1:
7.01
GRMZM2G334041
ChenXi Gao et al. 2024. Analysis of Transposable Element Associated Epigenetic Regulation under Drought in Maize Sci Agric Sin. 57:1034-1048..     Reference: March 27th, 2024
Gene Product: April 6th, 2018
Variation: December 25th, 2014
Gene Model: December 23rd, 2014
42 days agomet2 DNA methyl transferase2:
10.06
GRMZM2G025592
ChenXi Gao et al. 2024. Analysis of Transposable Element Associated Epigenetic Regulation under Drought in Maize Sci Agric Sin. 57:1034-1048..     Reference: March 27th, 2024
Gene Product: April 6th, 2018
Variation: November 13th, 2018
Gene Model: November 16th, 2011
42 days agomet5 DNA methyl transferase5:
2.02
GRMZM2G005310
ChenXi Gao et al. 2024. Analysis of Transposable Element Associated Epigenetic Regulation under Drought in Maize Sci Agric Sin. 57:1034-1048..     Reference: March 27th, 2024
Gene Product: April 6th, 2018
Variation: June 9th, 2018
Gene Model: December 22nd, 2014
42 days agomet3 DNA methyl transferase3:
9.07
   ChenXi Gao et al. 2024. Analysis of Transposable Element Associated Epigenetic Regulation under Drought in Maize Sci Agric Sin. 57:1034-1048..     Reference: March 27th, 2024
Gene Product: April 6th, 2018
Variation: February 13th, 2016
42 days agomet7 DNA methyl transferase7:
1.01
   ChenXi Gao et al. 2024. Analysis of Transposable Element Associated Epigenetic Regulation under Drought in Maize Sci Agric Sin. 57:1034-1048..     Reference: March 27th, 2024
Gene Product: April 6th, 2018
Variation: December 22nd, 2014
42 days agoacs7 1-aminocyclopropane-1-carboxylate synthase7:
10.05
GRMZM5G894619
ChenXi Gao et al. 2024. Analysis of Transposable Element Associated Epigenetic Regulation under Drought in Maize Sci Agric Sin. 57:1034-1048..     Reference: March 27th, 2024
Gene Product: May 16th, 2016
Variation: April 23rd, 2020
Gene Model: January 21st, 2016
42 days agovpp5 vacuolar-type H+-pyrophosphatase5:
 
GRMZM2G170927
ChenXi Gao et al. 2024. Analysis of Transposable Element Associated Epigenetic Regulation under Drought in Maize Sci Agric Sin. 57:1034-1048..   AT1G15690 (TAIR)
LOC_Os02g09150 (MSU/TIGR)
Reference: March 27th, 2024
Gene Product: August 16th, 2016
Variation: August 16th, 2016
Gene Model: August 16th, 2016
43 days agopx25 peroxidase25:
 
   Qurban Ali et al. 2024. Antioxidant production promotes defense mechanism and different gene expression level in Zea mays under abiotic stress Sci. Rep.. 14:7114.     Reference: March 26th, 2024
Gene Product: September 18th, 2015
43 days agotml2 too many laterals2:
 
   Daniela Vlad et al. 2024. The WIP6 transcription factor too many laterals specifies vein typein C4 and C3 grass leaves. Curr Biol doi: 10.1016/j.cub.2024.03.007   AT1G13290 (TAIR) Reference: March 26th, 2024
Gene Product: November 14th, 2022
Variation: March 26th, 2024
43 days agopx3 peroxidase3:
7.05 - 7.06
GRMZM2G427815
Qurban Ali et al. 2024. Antioxidant production promotes defense mechanism and different gene expression level in Zea mays under abiotic stress Sci. Rep.. 14:7114.     Reference: March 26th, 2024
Gene Product: September 18th, 2015
Variation: August 11th, 2015
Gene Model: August 11th, 2015
43 days agots1 tassel seed1:
2.04 - 2.05
   Qurban Ali et al. 2024. Antioxidant production promotes defense mechanism and different gene expression level in Zea mays under abiotic stress Sci. Rep.. 14:7114.     Reference: March 26th, 2024
Gene Product: January 3rd, 2018
Variation: September 5th, 2019
43 days agolox6 lipoxygenase6:
2.02
GRMZM2G040095
Qurban Ali et al. 2024. Antioxidant production promotes defense mechanism and different gene expression level in Zea mays under abiotic stress Sci. Rep.. 14:7114.     Reference: March 26th, 2024
Gene Product: January 3rd, 2018
Variation: June 11th, 2014
Gene Model: June 10th, 2014
43 days agolox12 lipoxygenase12:
3.04
GRMZM2G106748
Qurban Ali et al. 2024. Antioxidant production promotes defense mechanism and different gene expression level in Zea mays under abiotic stress Sci. Rep.. 14:7114.     Reference: March 26th, 2024
Gene Product: January 3rd, 2018
Variation: August 15th, 2014
Gene Model: June 10th, 2014
43 days agocyp22 cytochrome P-450 22:
 
GRMZM2G067591
Ruiqi Chen et al. 2024. Heterologous Biosynthesis of Kauralexin A1 in Saccharomyces cerevisiae through Metabolic and Enzyme Engineering. J Agric Food Chem. :doi: 10.1021/acs.jafc.4c00856.     Reference: March 26th, 2024
Gene Product: December 30th, 2022
Gene Model: February 26th, 2018
43 days agocpr2 cytochrome P-450 reductase2:
 
GRMZM2G104294
Ruiqi Chen et al. 2024. Heterologous Biosynthesis of Kauralexin A1 in Saccharomyces cerevisiae through Metabolic and Enzyme Engineering. J Agric Food Chem. :doi: 10.1021/acs.jafc.4c00856.     Reference: March 26th, 2024
Gene Product: February 26th, 2018
Gene Model: February 26th, 2018
43 days agouce15 ubiquitin-conjugating enzyme15:
 
GRMZM2G063931
Ma, J et al. 2016. Comparative Study on the Transcriptome of Maize Mature Embryos from Two China Elite Hybrids Zhengdan958 and Anyu5. PLoS One. 11:e0158028.     Reference: March 26th, 2024
Gene Product: December 19th, 2019
Gene Model: December 19th, 2019
43 days agoapx8 ascorbate peroxidase8:
 
   Qurban Ali et al. 2024. Antioxidant production promotes defense mechanism and different gene expression level in Zea mays under abiotic stress Sci. Rep.. 14:7114.     Reference: March 26th, 2024
Gene Product: October 15th, 2020
43 days agopx24 peroxidase24:
 
GRMZM2G023840
Qurban Ali et al. 2024. Antioxidant production promotes defense mechanism and different gene expression level in Zea mays under abiotic stress Sci. Rep.. 14:7114.   AT5G05340 (TAIR) Reference: March 26th, 2024
Gene Product: September 18th, 2015
Gene Model: December 10th, 2021
43 days agotml1 too many laterals1:
 
GRMZM2G150011
Daniela Vlad et al. 2024. The WIP6 transcription factor too many laterals specifies vein typein C4 and C3 grass leaves. Curr Biol doi: 10.1016/j.cub.2024.03.007   AT1G13290 (TAIR) Reference: March 26th, 2024
Gene Product: November 14th, 2022
Variation: December 21st, 2023
Gene Model: August 24th, 2022
43 days agoapx12 ascorbate peroxidase12:
5.05
   Qurban Ali et al. 2024. Antioxidant production promotes defense mechanism and different gene expression level in Zea mays under abiotic stress Sci. Rep.. 14:7114.     Reference: March 26th, 2024
Gene Product: October 15th, 2020
Variation: March 21st, 2017
43 days agorboh10 respiratory burst oxidase10:
3.04
GRMZM2G034896
Ma, J et al. 2016. Comparative Study on the Transcriptome of Maize Mature Embryos from Two China Elite Hybrids Zhengdan958 and Anyu5. PLoS One. 11:e0158028.     Reference: March 26th, 2024
Gene Product: February 18th, 2023
Variation: March 31st, 2005
Gene Model: February 23rd, 2019
44 days agompk20 MAP kinase20:
 
   Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: July 12th, 2013
44 days agosbt53 subtilisin53:
 
   Chuanxi Peng et al. 2024. Unveiling the Regulatory Role of miRNAs in Internode Elongation: Integrated Analysis of MicroRNA and mRNA Expression Profiles across Diverse Dwarfing Treatments in Maize (Zea mays L.) J Agric Food Chem. :doi: 10.1021/acs.jafc.3c09507.     Reference: March 25th, 2024
Gene Product: November 11th, 2016
44 days agoaldh30 aldehyde dehydrogenase30:
 
   Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: June 28th, 2005
44 days agoaldh33 aldehyde dehydrogenase33:
 
   Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: January 5th, 2024
44 days agoaldh34 aldehyde dehydrogenase34:
 
   Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: June 28th, 2005
44 days agonhx18 Na+/H+ antiporter 18:
 
   Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: April 26th, 2021
44 days agonhx19 Na+/H+ antiporter 19:
 
   Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: April 26th, 2021
44 days agopzb01111  :
10.04
   Chuanxi Peng et al. 2024. Unveiling the Regulatory Role of miRNAs in Internode Elongation: Integrated Analysis of MicroRNA and mRNA Expression Profiles across Diverse Dwarfing Treatments in Maize (Zea mays L.) J Agric Food Chem. :doi: 10.1021/acs.jafc.3c09507.     Reference: March 25th, 2024
Variation: December 13th, 2018
44 days agobr2 brachytic2:
1.06 - 1.07
GRMZM2G315375
Chuanxi Peng et al. 2024. Unveiling the Regulatory Role of miRNAs in Internode Elongation: Integrated Analysis of MicroRNA and mRNA Expression Profiles across Diverse Dwarfing Treatments in Maize (Zea mays L.) J Agric Food Chem. :doi: 10.1021/acs.jafc.3c09507.     Reference: March 25th, 2024
Gene Product: May 1st, 2012
Variation: December 28th, 2023
Gene Model: April 28th, 2012
44 days agocncr1 cinnamoyl CoA reductase1:
1.07
GRMZM2G131205
Chuanxi Peng et al. 2024. Unveiling the Regulatory Role of miRNAs in Internode Elongation: Integrated Analysis of MicroRNA and mRNA Expression Profiles across Diverse Dwarfing Treatments in Maize (Zea mays L.) J Agric Food Chem. :doi: 10.1021/acs.jafc.3c09507.     Reference: March 25th, 2024
Gene Product: September 1st, 2003
Variation: May 5th, 2017
Gene Model: June 23rd, 2016
44 days agompk2 MAP kinase2:
9.02
GRMZM2G020216
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: July 12th, 2013
Variation: January 18th, 2013
Gene Model: July 9th, 2013
44 days agosimk1 salt-induced MAP kinase1:
 
GRMZM2G127141
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: July 12th, 2013
Gene Model: July 12th, 2013
44 days agocesa1 cellulose synthase1:
8.03
   Chuanxi Peng et al. 2024. Unveiling the Regulatory Role of miRNAs in Internode Elongation: Integrated Analysis of MicroRNA and mRNA Expression Profiles across Diverse Dwarfing Treatments in Maize (Zea mays L.) J Agric Food Chem. :doi: 10.1021/acs.jafc.3c09507.     Reference: March 25th, 2024
Gene Product: October 7th, 2016
Variation: June 29th, 2005
44 days agocesa7 cellulose synthase7:
7.02
   Chuanxi Peng et al. 2024. Unveiling the Regulatory Role of miRNAs in Internode Elongation: Integrated Analysis of MicroRNA and mRNA Expression Profiles across Diverse Dwarfing Treatments in Maize (Zea mays L.) J Agric Food Chem. :doi: 10.1021/acs.jafc.3c09507.     Reference: March 25th, 2024
Gene Product: October 7th, 2016
Variation: January 3rd, 2014
44 days agolox5 lipoxygenase5:
5.02
GRMZM2G102760
Peiguo Yuan et al. 2024. Duplicated Copy Number Variant of the Maize 9-Lipoxygenase ZmLOX5 Improves 9,10-KODA-Mediated Resistance to Fall Armyworms Genes. 15:401.     Reference: March 25th, 2024
Gene Product: January 3rd, 2018
Variation: March 25th, 2024
Gene Model: June 10th, 2014
44 days agoapx3 ascorbate peroxidase homolog3:
 
GRMZM2G137839
Namuun Altansambar et al. 2024. The combined application of rutin and silicon alleviates osmotic stress in maize seedlings by triggering accumulation of osmolytes and antioxidants’ defense mechanisms Physiol Mol Biol Plants. :doi: 10.1007/s12298-024-01430-z.     Reference: March 25th, 2024
Gene Product: October 15th, 2020
Variation: August 11th, 2012
Gene Model: June 19th, 2013
44 days agompk7 MAP kinase7:
 
GRMZM2G002100
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: July 12th, 2013
Variation: January 18th, 2013
Gene Model: July 9th, 2013
44 days agoaldh7 aldehyde dehydrogenase7:
 
GRMZM2G365483
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: January 5th, 2024
Gene Model: October 2nd, 2019
44 days agoaldh11 aldehyde dehydrogenase11:
 
GRMZM2G013214
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: January 5th, 2024
Gene Model: October 2nd, 2019
44 days agoaldh26 aldehyde dehydrogenase26:
 
GRMZM2G135470
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: January 5th, 2024
Gene Model: October 2nd, 2019
44 days agoaldh9 aldehyde dehydrogenase9:
 
GRMZM2G016189
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: January 5th, 2024
Gene Model: October 2nd, 2019
44 days agoaldh24 aldehyde dehydrogenase24:
 
GRMZM2G398633
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: January 5th, 2024
Gene Model: October 2nd, 2019
44 days agompk4 MAP kinase4:
 
GRMZM2G123886
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: July 12th, 2013
Gene Model: December 13th, 2019
44 days agompk11 MAP kinase11:
 
GRMZM2G375975
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: July 12th, 2013
Gene Model: December 13th, 2019
44 days agompk13 MAP kinase13:
 
GRMZM2G163861
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.   AT2G42880 (TAIR) Reference: March 25th, 2024
Gene Product: July 12th, 2013
Variation: September 19th, 2023
Gene Model: December 13th, 2019
44 days agompk18 MAP kinase18:
 
GRMZM2G122335
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: July 12th, 2013
Gene Model: December 13th, 2019
44 days agompk19 MAP kinase19:
 
GRMZM2G007848
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: July 12th, 2013
Gene Model: December 13th, 2019
44 days agosod11 superoxide dismutase11:
 
GRMZM2G042080
Esra Arslan Yüksel 2024. Effect of L-Arginine on Alleviating Salt Stress through Antioxidant Enzymes Activity in Zea mays Turkish JAF Sci Tech. 12:447-452.     Reference: March 25th, 2024
Gene Product: October 4th, 2021
Gene Model: July 9th, 2020
44 days agonhx10 Na+/H+ antiporter 10:
 
GRMZM2G081668
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: April 26th, 2021
Gene Model: April 26th, 2021
44 days agonhx13 Na+/H+ antiporter 13:
 
   Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: April 26th, 2021
44 days agonhx16 Na+/H+ antiporter 16:
 
GRMZM2G455171
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: April 26th, 2021
Gene Model: April 26th, 2021
44 days agonhx12 Na+/H+ antiporter 12:
 
GRMZM2G051032
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: April 26th, 2021
Gene Model: April 26th, 2021
44 days agoglpx7 glutathione peroxidase7:
 
GRMZM2G144153
Namuun Altansambar et al. 2024. The combined application of rutin and silicon alleviates osmotic stress in maize seedlings by triggering accumulation of osmolytes and antioxidants’ defense mechanisms Physiol Mol Biol Plants. :doi: 10.1007/s12298-024-01430-z.     Reference: March 25th, 2024
Gene Product: March 4th, 2022
Gene Model: November 22nd, 2021
44 days agosaur64 small auxin up RNA64:
 
GRMZM2G095839
Chuanxi Peng et al. 2024. Unveiling the Regulatory Role of miRNAs in Internode Elongation: Integrated Analysis of MicroRNA and mRNA Expression Profiles across Diverse Dwarfing Treatments in Maize (Zea mays L.) J Agric Food Chem. :doi: 10.1021/acs.jafc.3c09507.     Reference: March 25th, 2024
Gene Product: November 26th, 2021
Gene Model: November 26th, 2021
44 days agojih4 jasmonoyl-l-isoleucine hydrolase4:
 
GRMZM2G476538
Chuanxi Peng et al. 2024. Unveiling the Regulatory Role of miRNAs in Internode Elongation: Integrated Analysis of MicroRNA and mRNA Expression Profiles across Diverse Dwarfing Treatments in Maize (Zea mays L.) J Agric Food Chem. :doi: 10.1021/acs.jafc.3c09507.     Reference: March 25th, 2024
Gene Product: June 10th, 2022
Gene Model: June 10th, 2022
44 days agompk14 MAP kinase14:
5.03
GRMZM2G062914
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: July 12th, 2013
Gene Model: July 12th, 2013
44 days agompk5 MAP kinase5:
5.03
GRMZM2G048455
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: July 12th, 2013
Variation: August 5th, 2021
Gene Model: December 13th, 2019
44 days agompk12 MAP kinase12:
6.07
GRMZM2G062761
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: July 12th, 2013
Gene Model: December 13th, 2019
44 days agonhx5 Na+/H+ antiporter 5:
7.05
GRMZM2G027851
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: April 26th, 2021
Variation: April 26th, 2021
Gene Model: August 20th, 2018
44 days agonhx14 Na+/H+ antiporter 14:
9.03
GRMZM2G118019
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: April 26th, 2021
Variation: September 25th, 2007
Gene Model: August 23rd, 2019
44 days agompk6 MAP kinase6:
10.03
GRMZM2G089484
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: July 12th, 2013
Variation: March 8th, 2024
Gene Model: July 9th, 2013
44 days agonhx17 Na+/H+ antiporter 17:
1.03
GRMZM2G311165
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: April 26th, 2021
Variation: March 31st, 2005
Gene Model: February 11th, 2019
44 days agonhx1 Na+/H+ antiporter 1:
 
GRMZM2G037342
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: April 26th, 2021
Gene Model: April 26th, 2021
44 days agonhx2 Na+/H+ antiporter 2:
 
GRMZM2G063492
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: April 26th, 2021
Gene Model: August 20th, 2018
44 days agoomt1 Caffeoyl-CoA O-methyltransferase1:
6.02
GRMZM2G127948
Chuanxi Peng et al. 2024. Unveiling the Regulatory Role of miRNAs in Internode Elongation: Integrated Analysis of MicroRNA and mRNA Expression Profiles across Diverse Dwarfing Treatments in Maize (Zea mays L.) J Agric Food Chem. :doi: 10.1021/acs.jafc.3c09507.     Reference: March 25th, 2024
Gene Product: January 5th, 2014
Variation: December 26th, 2016
Gene Model: September 17th, 2014
44 days agompk3 MAP kinase3:
1.03
GRMZM2G017792
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: July 9th, 2013
Variation: July 12th, 2013
Gene Model: July 9th, 2013
44 days agompk8 MAP kinase8:
8.06
GRMZM2G131334
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: July 12th, 2013
Gene Model: September 5th, 2021
44 days agoxth3 xyloglucan endo-transglycosylase/hydrolase3:
10.03
GRMZM2G364748
Chuanxi Peng et al. 2024. Unveiling the Regulatory Role of miRNAs in Internode Elongation: Integrated Analysis of MicroRNA and mRNA Expression Profiles across Diverse Dwarfing Treatments in Maize (Zea mays L.) J Agric Food Chem. :doi: 10.1021/acs.jafc.3c09507.     Reference: March 25th, 2024
Gene Product: March 23rd, 2024
Gene Model: July 2nd, 2020
44 days agompk21 MAP kinase21:
2.08
   Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: July 12th, 2013
Variation: September 25th, 2007
44 days agompk15 MAP kinase15:
6.01
GRMZM2G306028
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: July 12th, 2013
Gene Model: December 13th, 2019
44 days agompk9 MAP kinase9:
5.03
GRMZM2G135904
Amaal Maghraby et al. 2024. Genome-wide identification, characterization and evolutionary analysis of betaine aldehyde dehydrogenase (BADH), mitogen-activated protein kinase (MAPK) and sodium/hydrogen exchanger (NHX) genes in maize (Zea mays) under salt stress Genet Resour Crop Evol. :doi: 10.1007/s10722-024-01930-7.     Reference: March 25th, 2024
Gene Product: July 12th, 2013
Gene Model: December 13th, 2019
46 days agoxth18 xyloglucan endotransglucosylase/hydrolase18:
 
   Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
46 days agoxth19 xyloglucan endotransglucosylase/hydrolase19:
 
   Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
46 days agoxth23 xyloglucan endotransglucosylase/hydrolase23:
 
   Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
46 days agoxth20 xyloglucan endotransglucosylase/hydrolase20:
 
   Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
46 days agoxth14 xyloglucan endotransglucosylase/hydrolase14:
 
   Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
46 days agoxth10 xyloglucan endotransglucosylase/hydrolase10:
 
   Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
46 days agoxth11 xyloglucan endotransglucosylase/hydrolase11:
 
   Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
46 days agoxth12 xyloglucan endotransglucosylase/hydrolase12:
 
   Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
46 days agoxth16 xyloglucan endotransglucosylase/hydrolase16:
 
   Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
46 days agoxth22 xyloglucan endotransglucosylase/hydrolase22:
 
   Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
46 days agoxth24 xyloglucan endotransglucosylase/hydrolase24:
 
   Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
46 days agoxth25 xyloglucan endotransglucosylase/hydrolase25:
 
   Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
46 days agoxth26 xyloglucan endotransglucosylase/hydrolase26:
 
   Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
46 days agoxth29 xyloglucan endotransglucosylase/hydrolase29:
 
   Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
46 days agoxth30 xyloglucan endotransglucosylase/hydrolase30:
 
   Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
46 days agoxet1 xyloglucan endotransglycosylase homolog1:
5.03
GRMZM2G026980
Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: September 5th, 2012
Gene Model: September 5th, 2012
46 days agobx2 benzoxazinone synthesis2:
4.01
GRMZM2G085661
Yohannes Besufekad Setotaw et al. 2024. Salicylic acid positively regulates maize defenses against lepidopteran insects Plant Divers. :doi: 10.1016/j.pld.2024.03.004.     Reference: March 23rd, 2024
Gene Product: April 8th, 2013
Variation: April 12th, 2019
Gene Model: October 24th, 2011
46 days agoxth31 xyloglucan endotransglucosylase/hydrolase31:
 
GRMZM2G388684
Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
Gene Model: July 24th, 2022
46 days agoxth21 xyloglucan endotransglucosylase/hydrolase21:
4.10
GRMZM5G808290
Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
Gene Model: April 27th, 2020
46 days agoxth15 xyloglucan endotransglucosylase/hydrolase15:
 
GRMZM2G319798
Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
Gene Model: June 30th, 2020
46 days agoxth8 xyloglucan endo-transglycosylase/hydrolase8:
 
GRMZM2G091118
Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
Gene Model: January 9th, 2021
46 days agoxth7 xyloglucan endo-transglycosylase/hydrolase7:
 
GRMZM2G063566
Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
Gene Model: January 9th, 2021
46 days agoxth2 xyloglucan endo-transglycosylase/hydrolase2:
 
GRMZM2G128876
Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
Gene Model: January 9th, 2021
46 days agoxth4 xyloglucan endo-transglycosylase/hydrolase4:
 
GRMZM2G166944
Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
Gene Model: January 9th, 2021
46 days agoxth9 xyloglucan endo-transglycosylase/hydrolase9:
 
GRMZM2G174855
Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
Gene Model: July 29th, 2021
46 days agoxth6 xyloglucan endo-transglycosylase/hydrolase6:
4.08
GRMZM2G004699
Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
Gene Model: April 24th, 2020
46 days agoxth17 xyloglucan endotransglucosylase/hydrolase17:
5.04
GRMZM5G886185
Weichao Fu et al. 2024. Genome-wide identification and characterization of xyloglucan endotransglucosylase/hydrolase gene family in maize (Zea mays L.) and the function of ZmXTH30 in response to drought stress Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105744.     Reference: March 23rd, 2024
Gene Product: March 23rd, 2024
Gene Model: May 16th, 2020
47 days agomyb40 myb transcription factor40:
3.04
GRMZM2G051256
Wang, HH et al. 2024. An ARF gene mutation creates flint kernel architecture in dent maize Nat Commun. 15:2565.     Reference: March 22nd, 2024
Variation: February 18th, 2011
Gene Model: July 28th, 2016
47 days agop1 pericarp color1:
1.03
   Wang, HH et al. 2024. An ARF gene mutation creates flint kernel architecture in dent maize Nat Commun. 15:2565.     Reference: March 22nd, 2024
Gene Product: October 13th, 2010
Variation: January 3rd, 2024
47 days agotua4 alpha tubulin4:
5.01
   Wang, HH et al. 2024. An ARF gene mutation creates flint kernel architecture in dent maize Nat Commun. 15:2565.     Reference: March 22nd, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
47 days agoarftf17 ARF-transcription factor 17:
 
   Wang, HH et al. 2024. An ARF gene mutation creates flint kernel architecture in dent maize Nat Commun. 15:2565.     Reference: March 22nd, 2024
Gene Product: January 29th, 2022
Variation: March 22nd, 2024
47 days agoarftf19 ARF-transcription factor 19:
 
GRMZM2G013663
Wang, HH et al. 2024. An ARF gene mutation creates flint kernel architecture in dent maize Nat Commun. 15:2565.     Reference: March 22nd, 2024
Gene Product: January 29th, 2022
Variation: June 22nd, 2021
Gene Model: August 9th, 2018
47 days agoarftf2 ARF-transcription factor 2:
 
   Wang, HH et al. 2024. An ARF gene mutation creates flint kernel architecture in dent maize Nat Commun. 15:2565.     Reference: March 22nd, 2024
Gene Product: January 29th, 2022
47 days agoarftf21 ARF-transcription factor 21:
 
   Wang, HH et al. 2024. An ARF gene mutation creates flint kernel architecture in dent maize Nat Commun. 15:2565.     Reference: March 22nd, 2024
Gene Product: January 29th, 2022
47 days agoglk36 G2-like-transcription factor 36:
 
   Gongjian Li et al. 2024. Gene pyramiding of ZmGLK36 and ZmGDIα-hel for rough dwarf disease resistance in maize Mol Breed. 44:25.     Reference: March 22nd, 2024
Variation: September 14th, 2023
47 days agop2 pericarp color2:
1.03
GRMZM2G057027
Wang, HH et al. 2024. An ARF gene mutation creates flint kernel architecture in dent maize Nat Commun. 15:2565.     Reference: March 22nd, 2024
Variation: April 18th, 2023
Gene Model: August 6th, 2014
47 days agophs1 poor homologous synapsis1:
9.00
GRMZM2G100103
Meilin Zou et al. 2024. Molecular mechanisms and regulation of recombination frequency and distribution in plants Theor Appl Genet. 137:86.     Reference: March 22nd, 2024
Gene Product: September 5th, 2006
Variation: August 7th, 2012
Gene Model: August 7th, 2012
47 days agomyb95 myb transcription factor95:
 
GRMZM2G051528
Wang, HH et al. 2024. An ARF gene mutation creates flint kernel architecture in dent maize Nat Commun. 15:2565.     Reference: March 22nd, 2024
Variation: February 17th, 2011
Gene Model: May 28th, 2015
47 days agosrph1 SGT1 disease resistance protein homolog1:
3.09
GRMZM2G105019
Wang, HH et al. 2024. An ARF gene mutation creates flint kernel architecture in dent maize Nat Commun. 15:2565.     Reference: March 22nd, 2024
Variation: March 31st, 2005
Gene Model: March 23rd, 2015
47 days agorad51b recombination protein51 gene b:
3.05
GRMZM2G084762
Meilin Zou et al. 2024. Molecular mechanisms and regulation of recombination frequency and distribution in plants Theor Appl Genet. 137:86.     Reference: March 22nd, 2024
Gene Product: August 12th, 2016
Variation: May 13th, 2012
Gene Model: June 19th, 2014
47 days agorad51a recombination protein51 gene a:
7.04
GRMZM2G121543
Meilin Zou et al. 2024. Molecular mechanisms and regulation of recombination frequency and distribution in plants Theor Appl Genet. 137:86.     Reference: March 22nd, 2024
Gene Product: August 12th, 2016
Variation: April 19th, 2012
Gene Model: June 19th, 2014
47 days agogdi1 guanosine nucleotide diphosphate dissociation inhibitor1:
8.03
   Gongjian Li et al. 2024. Gene pyramiding of ZmGLK36 and ZmGDIα-hel for rough dwarf disease resistance in maize Mol Breed. 44:25.     Reference: March 22nd, 2024
Gene Product: January 24th, 2020
Variation: February 18th, 2022
48 days agoLOC100284943  :
 
   Sun, XR et al. 2024. Cloning, Expression, and Functional Characterization of Two Highly Efficient Flavonoid-di-O-glycosyltransferases ZmUGT84A1 and ZmUGT84A2 from Maize (Zea mays L.). J Agric Food Chem. :doi: 10.1021/acs.jafc.3c06327.   AT4G15480 (TAIR) Reference: March 21st, 2024
Gene Product: September 24th, 2018
48 days agoZm00001d048945  :
 
   He, XM et al. 2024. Heritable microbiome variation is correlated with source environment in locally adapted maize varieties Nature Plants. :doi: 10.1038/s41477-024-01654-7.   AT3G23090 (TAIR) Reference: March 21st, 2024
Variation: March 21st, 2024
48 days agoGRMZM2G304712  :
 
GRMZM2G304712
Sun, XR et al. 2024. Cloning, Expression, and Functional Characterization of Two Highly Efficient Flavonoid-di-O-glycosyltransferases ZmUGT84A1 and ZmUGT84A2 from Maize (Zea mays L.). J Agric Food Chem. :doi: 10.1021/acs.jafc.3c06327.   AT4G15480 (TAIR) Reference: March 21st, 2024
Gene Product: September 24th, 2018
Gene Model: June 21st, 2018
49 days agokrp13 kinesin-related protein13:
1.08
GRMZM2G034828
Youqiang Li et al. 2024. Transcriptome Analysis of Potential Regulatory Genes under Chemical Doubling in Maize Haploids Agronomy. 14:624.   AT3G20150 (TAIR) Reference: March 20th, 2024
Gene Product: September 18th, 2023
Gene Model: February 1st, 2015
50 days agoLOC103655445  :
 
       Gene Product: March 19th, 2024
50 days agogrf13 general regulatory factor13:
2.09
GRMZM2G408768
Niu, LJ et al. 2024. Maize multi-omics reveal leaf water status controlling of differential transcriptomes, proteomes and hormones as mechanisms of age-dependent osmotic stress response in leaves. Stress Biol. 4:19.     Reference: March 19th, 2024
Gene Product: March 6th, 2023
Gene Model: February 20th, 2019
50 days agopebp2 phosphatidylethanolamine-binding protein2:
 
   Danilevskaya, O; Ananiev, E; Simmons, CR. 2008. Plant Physiol. 146:250-264     Reference: March 19th, 2024
Gene Product: March 19th, 2024
Variation: December 15th, 2010
50 days agopebp4 phosphatidylethanolamine-binding protein4:
 
   Danilevskaya, O; Ananiev, E; Simmons, CR. 2008. Plant Physiol. 146:250-264     Reference: March 19th, 2024
Gene Product: March 19th, 2024
Variation: December 15th, 2010
50 days agopebp7 phosphatidylethanolamine-binding protein7:
 
   Danilevskaya, O; Ananiev, E; Simmons, CR. 2008. Plant Physiol. 146:250-264     Reference: March 19th, 2024
Gene Product: March 19th, 2024
Variation: June 19th, 2015
50 days agopebp12 phosphatidylethanolamine-binding protein12:
 
   Chardon, F et al. 2005. Phylogenomic analysis of the PEBP gene family in cereals. J Mol Evol. 61:579-90.     Reference: March 19th, 2024
Gene Product: March 19th, 2024
Variation: December 10th, 2010
50 days agopebp13 phosphatidylethanolamine-binding protein13:
 
   Chardon, F et al. 2005. Phylogenomic analysis of the PEBP gene family in cereals. J Mol Evol. 61:579-90.     Reference: March 19th, 2024
Gene Product: March 19th, 2024
Variation: December 10th, 2010
50 days agopebp14 phosphatidylethanolamine-binding protein:
 
   Chardon, F et al. 2005. Phylogenomic analysis of the PEBP gene family in cereals. J Mol Evol. 61:579-90.     Reference: March 19th, 2024
Gene Product: March 19th, 2024
Variation: December 15th, 2010
50 days agopebp15 phosphatidylethanolamine-binding protein15:
 
   Chardon, F et al. 2005. Phylogenomic analysis of the PEBP gene family in cereals. J Mol Evol. 61:579-90.     Reference: March 19th, 2024
Gene Product: March 19th, 2024
Variation: December 15th, 2010
50 days agopebp16 phosphatidylethanolamine-binding protein16:
 
   Danilevskaya, O; Ananiev, E; Simmons, CR. 2008. Plant Physiol. 146:250-264     Reference: March 19th, 2024
Gene Product: March 19th, 2024
Variation: December 15th, 2010
50 days agopebp17 phosphatidylethanolamine-binding protein17:
 
   Danilevskaya, O; Ananiev, E; Simmons, CR. 2008. Plant Physiol. 146:250-264     Reference: March 19th, 2024
Gene Product: March 19th, 2024
Variation: December 15th, 2010
50 days agopebp18 phosphatidylethanolamine-binding protein18:
 
   Chardon, F et al. 2005. Phylogenomic analysis of the PEBP gene family in cereals. J Mol Evol. 61:579-90.     Reference: March 19th, 2024
Gene Product: March 19th, 2024
Variation: December 13th, 2010
50 days agopebp20 phosphatidylethanolamine-binding protein20:
 
   Chardon, F et al. 2005. Phylogenomic analysis of the PEBP gene family in cereals. J Mol Evol. 61:579-90.     Reference: March 19th, 2024
Gene Product: March 19th, 2024
Variation: December 13th, 2010
50 days agopebp24 phosphatidylethanolamine-binding protein24:
 
GRMZM2G440005
Chardon, F et al. 2005. Phylogenomic analysis of the PEBP gene family in cereals. J Mol Evol. 61:579-90.     Reference: March 19th, 2024
Gene Product: March 19th, 2024
Variation: December 14th, 2010
Gene Model: July 28th, 2016
50 days agopebp25 phosphatidylethanolamine-binding protein25:
 
GRMZM2G021560
Chardon, F et al. 2005. Phylogenomic analysis of the PEBP gene family in cereals. J Mol Evol. 61:579-90.     Reference: March 19th, 2024
Gene Product: March 19th, 2024
Variation: December 15th, 2010
Gene Model: July 28th, 2016
50 days agopebp26 phosphatidylethanolamine-binding protein26:
 
GRMZM2G400167
Chardon, F et al. 2005. Phylogenomic analysis of the PEBP gene family in cereals. J Mol Evol. 61:579-90.     Reference: March 19th, 2024
Gene Product: March 19th, 2024
Variation: December 14th, 2010
Gene Model: July 28th, 2016
50 days agogi1 gigantea1:
8.03
GRMZM2G107101
Suhui Chen et al. 2024. FKF1b controls reproductive transition associated with adaptation to geographical distribution in maize. J Integr Plant Biol. :doi: 10.1111/jipb.13639.     Reference: March 19th, 2024
Gene Product: September 19th, 2012
Variation: April 23rd, 2013
Gene Model: September 18th, 2012
50 days agobzip68 bZIP-transcription factor 68:
 
   Niu, LJ et al. 2024. Maize multi-omics reveal leaf water status controlling of differential transcriptomes, proteomes and hormones as mechanisms of age-dependent osmotic stress response in leaves. Stress Biol. 4:19.     Reference: March 19th, 2024
Variation: May 11th, 2022
50 days agonip2a NOD26-like membrane intrinsic protein2:
5.07
GRMZM2G028325
Luis Felipe Lata-Tenesaca et al. 2024. Physiological and Biochemical Aspects of Silicon-Mediated Resistance in Maize against Maydis Leaf Blight. Plants. 13:531.     Reference: March 19th, 2024
Gene Product: January 27th, 2022
Variation: May 28th, 2013
Gene Model: June 3rd, 2015
50 days agonip2b NOD26-like membrane intrinsic protein2:
6.04
GRMZM2G137108
Luis Felipe Lata-Tenesaca et al. 2024. Physiological and Biochemical Aspects of Silicon-Mediated Resistance in Maize against Maydis Leaf Blight. Plants. 13:531.     Reference: March 19th, 2024
Gene Product: January 22nd, 2021
Variation: July 3rd, 2015
Gene Model: June 3rd, 2015
50 days agosut7 sucrose transporter7:
9.07
GRMZM2G087901
Niu, LJ et al. 2024. Maize multi-omics reveal leaf water status controlling of differential transcriptomes, proteomes and hormones as mechanisms of age-dependent osmotic stress response in leaves. Stress Biol. 4:19.     Reference: March 19th, 2024
Gene Product: September 14th, 2013
Variation: April 13th, 2017
Gene Model: April 17th, 2013
50 days agolhcb4 light harvesting complex a/b protein4:
5.07
GRMZM2G103101
Niu, LJ et al. 2024. Maize multi-omics reveal leaf water status controlling of differential transcriptomes, proteomes and hormones as mechanisms of age-dependent osmotic stress response in leaves. Stress Biol. 4:19.     Reference: March 19th, 2024
Gene Product: January 8th, 2005
Variation: September 1st, 2003
Gene Model: October 9th, 2015
50 days agofkf1 flavin-binding kelch repeat f-box1:
 
GRMZM2G107945
Suhui Chen et al. 2024. FKF1b controls reproductive transition associated with adaptation to geographical distribution in maize. J Integr Plant Biol. :doi: 10.1111/jipb.13639.   AT1G68050 (TAIR) Reference: March 19th, 2024
Gene Product: April 27th, 2022
Variation: March 19th, 2024
Gene Model: December 12th, 2017
50 days agofkf2 flavin-binding kelch repeat f-box2:
 
GRMZM2G106363
Suhui Chen et al. 2024. FKF1b controls reproductive transition associated with adaptation to geographical distribution in maize. J Integr Plant Biol. :doi: 10.1111/jipb.13639.   AT1G68050 (TAIR) Reference: March 19th, 2024
Gene Product: April 27th, 2022
Variation: March 19th, 2024
Gene Model: December 12th, 2017
50 days agouce9 ubiquitin conjugating enzyme9:
 
GRMZM2G027378
Niu, LJ et al. 2024. Maize multi-omics reveal leaf water status controlling of differential transcriptomes, proteomes and hormones as mechanisms of age-dependent osmotic stress response in leaves. Stress Biol. 4:19.     Reference: March 19th, 2024
Gene Product: December 19th, 2019
Gene Model: May 10th, 2018
50 days agocyc16 cyclin16:
 
GRMZM2G007130
Niu, LJ et al. 2024. Maize multi-omics reveal leaf water status controlling of differential transcriptomes, proteomes and hormones as mechanisms of age-dependent osmotic stress response in leaves. Stress Biol. 4:19.     Reference: March 19th, 2024
Gene Product: June 26th, 2009
Gene Model: December 21st, 2018
50 days agolsi2 low silicon2:
 
GRMZM2G158378
Luis Felipe Lata-Tenesaca et al. 2024. Physiological and Biochemical Aspects of Silicon-Mediated Resistance in Maize against Maydis Leaf Blight. Plants. 13:531.     Reference: March 19th, 2024
Gene Product: January 22nd, 2021
Gene Model: January 22nd, 2021
50 days agoB6UH30  :
 
AC197705.4_FG003
Leyla Nazari et al. 2023. Transcriptional survey of abiotic stress response in maize (Zea mays L.) in the level of gene co-expression network and differential gene correlation analysis AoB Plants. :doi: 10.1093/aobpla/plad087.     Reference: December 22nd, 2023
Gene Product: March 19th, 2024
Gene Model: November 4th, 2021
50 days agoIDP62  :
6.04
GRMZM2G012276
Niu, LJ et al. 2024. Maize multi-omics reveal leaf water status controlling of differential transcriptomes, proteomes and hormones as mechanisms of age-dependent osmotic stress response in leaves. Stress Biol. 4:19.     Reference: March 19th, 2024
Variation: March 31st, 2005
Gene Model: June 30th, 2021
50 days agocenH3 centromeric histone H3:
6.06
GRMZM2G158526
Bortiri, E et al. 2024. Cyto-swapping in maize by haploid induction with a cenh3 mutant Nature Plants. :doi: 10.1038/s41477-024-01630-1.     Reference: March 19th, 2024
Gene Product: December 24th, 2015
Variation: March 18th, 2024
Gene Model: October 24th, 2011
50 days agosus2 sucrose synthase2:
1.04
GRMZM2G318780
Niu, LJ et al. 2024. Maize multi-omics reveal leaf water status controlling of differential transcriptomes, proteomes and hormones as mechanisms of age-dependent osmotic stress response in leaves. Stress Biol. 4:19.     Reference: March 19th, 2024
Gene Product: October 25th, 2006
Variation: February 1st, 2020
Gene Model: August 3rd, 2013
51 days agoGRMZM2G047656  :
 
   Dongying Zhou et al. 2024. Integrated Transcriptomic and Metabolomic Analysis of Exogenous NAA Effects on Maize Seedling Root Systems under Potassium Deficiency Int J Mol Sci. 25:3366.     Reference: March 18th, 2024
Gene Product: September 18th, 2015
51 days agoGRMZM2G136042  :
 
   Dongying Zhou et al. 2024. Integrated Transcriptomic and Metabolomic Analysis of Exogenous NAA Effects on Maize Seedling Root Systems under Potassium Deficiency Int J Mol Sci. 25:3366.     Reference: March 18th, 2024
Gene Product: September 18th, 2015
51 days agoGRMZM2G150731  :
 
   Dongying Zhou et al. 2024. Integrated Transcriptomic and Metabolomic Analysis of Exogenous NAA Effects on Maize Seedling Root Systems under Potassium Deficiency Int J Mol Sci. 25:3366.     Reference: March 18th, 2024
Gene Product: September 18th, 2015
51 days agoZm00001eb292010  :
 
   Dongying Zhou et al. 2024. Integrated Transcriptomic and Metabolomic Analysis of Exogenous NAA Effects on Maize Seedling Root Systems under Potassium Deficiency Int J Mol Sci. 25:3366.     Reference: March 18th, 2024
Gene Product: November 27th, 2023
51 days agomha2 plasma-membrane H+ATPase2:
2.02
   Dongying Zhou et al. 2024. Integrated Transcriptomic and Metabolomic Analysis of Exogenous NAA Effects on Maize Seedling Root Systems under Potassium Deficiency Int J Mol Sci. 25:3366.     Reference: March 18th, 2024
Gene Product: September 1st, 2003
Variation: May 13th, 2009
51 days agomha4 proton-exporting ATPase4:
10.07
GRMZM2G006894
Dongying Zhou et al. 2024. Integrated Transcriptomic and Metabolomic Analysis of Exogenous NAA Effects on Maize Seedling Root Systems under Potassium Deficiency Int J Mol Sci. 25:3366.     Reference: March 18th, 2024
Gene Product: September 1st, 2003
Variation: December 14th, 2017
Gene Model: December 14th, 2017
51 days agoglu4 beta-glucosidase4:
8.06
AC155376.2_FG005
Dongying Zhou et al. 2024. Integrated Transcriptomic and Metabolomic Analysis of Exogenous NAA Effects on Maize Seedling Root Systems under Potassium Deficiency Int J Mol Sci. 25:3366.   AT5G36890 (TAIR)
LOC_Os01g67220 (MSU/TIGR)
Reference: March 18th, 2024
Gene Product: June 26th, 2019
Gene Model: September 24th, 2018
51 days agohak1 potassium high-affinity transporter1:
2.04
GRMZM2G093826
Dongying Zhou et al. 2024. Integrated Transcriptomic and Metabolomic Analysis of Exogenous NAA Effects on Maize Seedling Root Systems under Potassium Deficiency Int J Mol Sci. 25:3366.     Reference: March 18th, 2024
Gene Product: March 12th, 2020
Gene Model: February 23rd, 2018
51 days agopx14 peroxidase14:
2.03
GRMZM2G108219
Dongying Zhou et al. 2024. Integrated Transcriptomic and Metabolomic Analysis of Exogenous NAA Effects on Maize Seedling Root Systems under Potassium Deficiency Int J Mol Sci. 25:3366.     Reference: March 18th, 2024
Gene Product: September 18th, 2015
Variation: February 22nd, 2015
Gene Model: February 23rd, 2015
51 days agopox2 guaiacol peroxidase2:
1.04
GRMZM2G040638
Dongying Zhou et al. 2024. Integrated Transcriptomic and Metabolomic Analysis of Exogenous NAA Effects on Maize Seedling Root Systems under Potassium Deficiency Int J Mol Sci. 25:3366.     Reference: March 18th, 2024
Gene Product: September 1st, 2003
Gene Model: February 9th, 2015
51 days agolrs1 liguleless related sequence1:
8.07
AC232238.2_FG004
Langham, RJ, et al. 2004. Genetics. 166:935-945     Reference: March 18th, 2024
Gene Product: August 21st, 2018
Variation: August 22nd, 2014
Gene Model: August 22nd, 2014
51 days agopht5 phosphate transporter protein5:
 
GRMZM2G041595
Vasconcelos, MJV et al. 2024. Gaspé Flint corn as a seed-to-seed model to study the effect of phosphorus on maize growth and development Genet Mol Res. 23:doi: 10.4238/gmr19213.     Reference: March 18th, 2024
Gene Product: June 16th, 2016
Gene Model: September 13th, 2018
51 days agoprx64 peroxidase64:
 
GRMZM2G076562
Dongying Zhou et al. 2024. Integrated Transcriptomic and Metabolomic Analysis of Exogenous NAA Effects on Maize Seedling Root Systems under Potassium Deficiency Int J Mol Sci. 25:3366.     Reference: March 18th, 2024
Gene Product: September 18th, 2015
Gene Model: September 22nd, 2018
51 days agohak20 potassium high-affinity transporter20:
 
GRMZM2G395267
Dongying Zhou et al. 2024. Integrated Transcriptomic and Metabolomic Analysis of Exogenous NAA Effects on Maize Seedling Root Systems under Potassium Deficiency Int J Mol Sci. 25:3366.     Reference: March 18th, 2024
Gene Product: March 12th, 2020
Gene Model: March 12th, 2020
51 days agopx15 peroxidase15:
 
GRMZM2G108123
Dongying Zhou et al. 2024. Integrated Transcriptomic and Metabolomic Analysis of Exogenous NAA Effects on Maize Seedling Root Systems under Potassium Deficiency Int J Mol Sci. 25:3366.     Reference: March 18th, 2024
Gene Product: September 18th, 2015
Gene Model: June 22nd, 2020
51 days agochx13 cation/H+ antiporter 13:
 
   Dongying Zhou et al. 2024. Integrated Transcriptomic and Metabolomic Analysis of Exogenous NAA Effects on Maize Seedling Root Systems under Potassium Deficiency Int J Mol Sci. 25:3366.     Reference: March 18th, 2024
Gene Product: April 26th, 2021
51 days agopx26 peroxidase26:
7.05
GRMZM2G126261
Dongying Zhou et al. 2024. Integrated Transcriptomic and Metabolomic Analysis of Exogenous NAA Effects on Maize Seedling Root Systems under Potassium Deficiency Int J Mol Sci. 25:3366.     Reference: March 18th, 2024
Gene Product: September 18th, 2015
Gene Model: July 30th, 2020
51 days agocipk23 calcineurin B-like-interacting protein kinase23:
7.01
GRMZM2G013236
Dongying Zhou et al. 2024. Integrated Transcriptomic and Metabolomic Analysis of Exogenous NAA Effects on Maize Seedling Root Systems under Potassium Deficiency Int J Mol Sci. 25:3366.     Reference: March 18th, 2024
Gene Product: August 25th, 2018
Gene Model: December 15th, 2018
51 days agogpm465  :
3.04
   Dongying Zhou et al. 2024. Integrated Transcriptomic and Metabolomic Analysis of Exogenous NAA Effects on Maize Seedling Root Systems under Potassium Deficiency Int J Mol Sci. 25:3366.     Reference: March 18th, 2024
Variation: September 25th, 2007
51 days agokch5 potassium channel5:
8.06
   Dongying Zhou et al. 2024. Integrated Transcriptomic and Metabolomic Analysis of Exogenous NAA Effects on Maize Seedling Root Systems under Potassium Deficiency Int J Mol Sci. 25:3366.     Reference: March 18th, 2024
Gene Product: November 27th, 2023
Variation: July 22nd, 2014
52 days agocdpk50 calcium dependent protein kinase50:
 
   Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
52 days agocdpk51 calcium dependent protein kinase51:
 
   Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
52 days agocdpk3 calcium dependent protein kinase3:
2.07
GRMZM2G168706
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Variation: September 1st, 2003
Gene Model: December 3rd, 2013
52 days agocdpk6 calcium dependent protein kinase6:
4.09
GRMZM2G035843
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Variation: September 1st, 2003
Gene Model: December 19th, 2017
52 days agocdpk4 calcium dependent protein kinase4:
10.06
GRMZM2G321239
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Variation: January 10th, 2018
Gene Model: December 3rd, 2013
52 days agocdpk8 calcium dependent protein kinase8:
7.03
GRMZM2G154489
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Variation: July 22nd, 2015
Gene Model: March 31st, 2015
52 days agocdpk27 calcium dependent protein kinase27:
8.08
GRMZM2G311220
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Variation: September 1st, 2003
Gene Model: January 10th, 2018
52 days agocdpk5 calcium dependent protein kinase5:
2.02
GRMZM2G314396
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Variation: February 16th, 2015
Gene Model: February 16th, 2015
52 days agoknox2 knotted related homeobox2:
9.03
GRMZM2G055243
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: September 1st, 2003
Variation: March 17th, 2024
Gene Model: September 17th, 2015
52 days agocdpk7 calcium dependent protein kinase7:
4.06
GRMZM2G081310
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Variation: September 1st, 2003
Gene Model: March 31st, 2015
52 days agocdpk35 calcium-dependent protein kinase35:
2.09
GRMZM2G012326
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Variation: September 25th, 2007
Gene Model: January 31st, 2018
52 days agorbap2 WD-repeat protein RBAP2:
3.07
GRMZM2G137965
Poretsky, E et al. 2024. Harnessing the predicted maize pan-interactome for putative gene function prediction and prioritization of candidate genes for important traits. G3. :doi: 10.1093/g3journal/jkae059.     Reference: March 17th, 2024
Variation: September 1st, 2003
Gene Model: December 10th, 2012
52 days agocdpk34 calcium dependent protein kinase34:
1.11
GRMZM2G104125
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: December 19th, 2019
52 days agocdpk33 calcium dependent protein kinase33:
2.06
GRMZM2G365035
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: December 13th, 2019
52 days agocdpk11 calcium dependent protein kinase11:
 
GRMZM2G047486
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: July 9th, 2013
Variation: April 3rd, 2015
Gene Model: July 9th, 2013
52 days agocdpk16 calcium dependent protein kinase16:
 
GRMZM2G006404
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: January 10th, 2018
52 days agocdpk17 calcium dependent protein kinase17:
 
GRMZM2G025387
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: January 10th, 2018
52 days agocdpk18 calcium dependent protein kinase18:
 
GRMZM2G027351
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: January 10th, 2018
52 days agocdpk19 calcium dependent protein kinase19:
 
GRMZM2G028086
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: January 10th, 2018
52 days agocdpk22 calcium dependent protein kinase22:
 
GRMZM2G053868
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Variation: March 17th, 2024
Gene Model: January 10th, 2018
52 days agocdpk23 calcium dependent protein kinase23:
 
GRMZM2G058305
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: January 10th, 2018
52 days agocdpk24 calcium dependent protein kinase24:
 
GRMZM2G088361
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: January 10th, 2018
52 days agocdpk26 calcium dependent protein kinase26:
 
GRMZM2G167276
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: January 10th, 2018
52 days agocdpk28 calcium dependent protein kinase28:
 
GRMZM2G340224
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: January 10th, 2018
52 days agocdpk29 calcium dependent protein kinase29:
 
GRMZM2G332660
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: May 30th, 2018
52 days agocdpk30 calcium dependent protein kinase30:
 
GRMZM2G112057
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: November 8th, 2019
52 days agocdpk36 calcium dependent protein kinase36:
 
GRMZM2G032852
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: December 17th, 2020
52 days agocdpk37 calcium dependent protein kinase37:
 
GRMZM2G040743
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: December 17th, 2020
52 days agocdpk9 calcium dependent protein kinase9:
 
GRMZM2G076634
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: December 17th, 2020
52 days agocdpk40 calcium dependent protein kinase40:
 
GRMZM5G856738
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: December 18th, 2020
52 days agocdpk41 calcium dependent protein kinase41:
 
GRMZM2G472311
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: December 18th, 2020
52 days agocdpk42 calcium dependent protein kinase42:
 
GRMZM2G121228
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: December 18th, 2020
52 days agocdpk43 calcium dependent protein kinase43:
 
GRMZM2G080871
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: December 18th, 2020
52 days agocdpk45 calcium dependent protein kinase45:
 
GRMZM2G353957
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: December 18th, 2020
52 days agocdpk46 calcium dependent protein kinase46:
 
GRMZM2G347226
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: December 18th, 2020
52 days agocdpk47 calcium dependent protein kinase47:
 
GRMZM2G097533
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Variation: May 13th, 2021
Gene Model: December 18th, 2020
52 days agocdpk48 calcium dependent protein kinase48:
 
AC210013.4_FG014
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: December 18th, 2020
52 days agocdpk49 calcium dependent protein kinase49:
 
AC203294.3_FG001
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: December 18th, 2020
52 days agocdpk39 calcium dependent protein kinase39:
 
GRMZM2G003059
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Gene Model: December 18th, 2020
52 days agocdpk10 calcium-dependent protein kinase 10:
 
GRMZM2G320506
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Variation: February 13th, 2008
Gene Model: March 31st, 2015
52 days agocdpk32 calcium dependent protein kinase32:
2.08
GRMZM2G099425
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Variation: September 9th, 2021
Gene Model: December 13th, 2019
52 days agocdpk2 calcium dependent protein kinase2:
2.05
GRMZM2G365815
Zhu, M et al. 2024. The maize ZmCPK39-ZmKnox2 module regulates plant height aBIOTECH. :doi: 10.1007/s42994-024-00150-y.     Reference: March 17th, 2024
Gene Product: December 3rd, 2013
Variation: November 21st, 2013
Gene Model: March 31st, 2015
54 days agocdc2 cell division control protein homolog2:
1.01
GRMZM2G008327
Lulu Bao et al. 2024. ZmSMR10 Increases the Level of Endoreplication of Plants through Its Interactions with ZmPCNA2 and ZmCSN5B Int J Mol Sci. 25:3356.     Reference: March 15th, 2024
Gene Product: October 19th, 2022
Variation: April 23rd, 2010
Gene Model: March 30th, 2015
54 days agoppr103 pentatricopeptide repeat-containing protein103:
 
GRMZM2G170896
Tyra N McCray et al. 2024. The dicot homolog of maize PPR103 carries a C-terminal DYW domain and may have a role in C-to-U editing of some chloroplast RNA transcripts. Plant Mol Biol. 114:28.   AT5G03800 (TAIR) Reference: March 15th, 2024
Gene Product: December 27th, 2016
Variation: April 21st, 2016
Gene Model: April 21st, 2016
54 days agosmr10 siamese-related10:
 
GRMZM2G493549
Lulu Bao et al. 2024. ZmSMR10 Increases the Level of Endoreplication of Plants through Its Interactions with ZmPCNA2 and ZmCSN5B Int J Mol Sci. 25:3356.     Reference: March 15th, 2024
Gene Product: March 8th, 2017
Gene Model: July 30th, 2020
54 days agopcna2 proliferating cell nuclear antigen2:
4.07
GRMZM2G108712
Lulu Bao et al. 2024. ZmSMR10 Increases the Level of Endoreplication of Plants through Its Interactions with ZmPCNA2 and ZmCSN5B Int J Mol Sci. 25:3356.     Reference: March 15th, 2024
Gene Product: September 1st, 2003
Variation: August 23rd, 2014
Gene Model: August 23rd, 2014
54 days agocdc1 cell division control protein homolog1:
4.10
GRMZM2G174596
Lulu Bao et al. 2024. ZmSMR10 Increases the Level of Endoreplication of Plants through Its Interactions with ZmPCNA2 and ZmCSN5B Int J Mol Sci. 25:3356.     Reference: March 15th, 2024
Gene Product: October 19th, 2022
Gene Model: December 21st, 2018
54 days agopco066126  :
2.02
   Lulu Bao et al. 2024. ZmSMR10 Increases the Level of Endoreplication of Plants through Its Interactions with ZmPCNA2 and ZmCSN5B Int J Mol Sci. 25:3356.   AT1G22920 (TAIR) Reference: March 15th, 2024
Variation: September 25th, 2007
55 days agowakl40 wall associated kinase like40:
 
   Wang, P et al. 2024. The symphony of maize signaling quartet defending against gray leaf spot. Stress Biol. 4:18.     Reference: March 14th, 2024
Gene Product: December 7th, 2023
Variation: January 18th, 2024
55 days agoccp2 cysteine protease2:
7.02
   Yuan, W et al. 2024. NIa-Pro of sugarcane mosaic virus targets Corn Cysteine Protease 1 (CCP1) to undermine salicylic acid-mediated defense in maize. PloS Pathogens. 20:e1012086.     Reference: March 14th, 2024
Gene Product: October 11th, 2021
Variation: July 30th, 2011
55 days agoms23 male sterile23:
8.01 - 8.02
GRMZM2G021276
Cao, SA et al. 2024. Cytoplasmic genome contributions to domestication and improvement of modern maize BMC Biology. 22:64.     Reference: March 14th, 2024
Gene Product: September 14th, 2016
Variation: September 6th, 2019
Gene Model: December 4th, 2016
55 days agorf3 restorer of fertility3:
2.09
   Cao, SA et al. 2024. Cytoplasmic genome contributions to domestication and improvement of modern maize BMC Biology. 22:64.     Reference: March 14th, 2024
Gene Product: December 27th, 2016
Variation: September 1st, 2003
55 days agorboh4 respiratory burst oxidase4:
4.08
GRMZM2G441541
Wang, P et al. 2024. The symphony of maize signaling quartet defending against gray leaf spot. Stress Biol. 4:18.     Reference: March 14th, 2024
Gene Product: February 18th, 2023
Variation: September 1st, 2003
Gene Model: July 2nd, 2013
55 days agoumc1060  :
5.04
GRMZM2G346133
Rumit Patel et al. 2024. Genetic Diversity and Population Structure of Maize (Zea mays L.) Inbred Lines in Association with Phenotypic and Grain Qualitative Traits Using SSR Genotyping Plants. 13:823.     Reference: March 14th, 2024
Variation: September 1st, 2003
Gene Model: October 14th, 2018
55 days agoumc1135  :
3.07
GRMZM2G105863
Rumit Patel et al. 2024. Genetic Diversity and Population Structure of Maize (Zea mays L.) Inbred Lines in Association with Phenotypic and Grain Qualitative Traits Using SSR Genotyping Plants. 13:823.     Reference: March 14th, 2024
Variation: September 1st, 2003
Gene Model: March 30th, 2018
55 days agosert2 serrate ortholog2:
4.05
GRMZM2G377165
Rumit Patel et al. 2024. Genetic Diversity and Population Structure of Maize (Zea mays L.) Inbred Lines in Association with Phenotypic and Grain Qualitative Traits Using SSR Genotyping Plants. 13:823.   AT2G27100 (TAIR) Reference: March 14th, 2024
Gene Product: November 14th, 2022
Variation: September 1st, 2003
Gene Model: June 7th, 2018
55 days agohsbp1 herbicide safener binding protein1:
2.05
   Rumit Patel et al. 2024. Genetic Diversity and Population Structure of Maize (Zea mays L.) Inbred Lines in Association with Phenotypic and Grain Qualitative Traits Using SSR Genotyping Plants. 13:823.     Reference: March 14th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
55 days agotga1 teosinte glume architecture1:
4.05
GRMZM2G101511
Cao, SA et al. 2024. Cytoplasmic genome contributions to domestication and improvement of modern maize BMC Biology. 22:64.     Reference: March 14th, 2024
Gene Product: July 5th, 2019
Variation: May 7th, 2015
Gene Model: October 28th, 2011
55 days agoumc2226  :
1.02
GRMZM2G110847
Rumit Patel et al. 2024. Genetic Diversity and Population Structure of Maize (Zea mays L.) Inbred Lines in Association with Phenotypic and Grain Qualitative Traits Using SSR Genotyping Plants. 13:823.     Reference: March 14th, 2024
Variation: January 6th, 2017
Gene Model: June 15th, 2017
55 days agowrky16 WRKY-transcription factor 16:
4.08
GRMZM2G063216
Rumit Patel et al. 2024. Genetic Diversity and Population Structure of Maize (Zea mays L.) Inbred Lines in Association with Phenotypic and Grain Qualitative Traits Using SSR Genotyping Plants. 13:823.     Reference: March 14th, 2024
Gene Product: July 24th, 2017
Gene Model: December 6th, 2016
55 days agourf13(mtT)  :
 
   Cao, SA et al. 2024. Cytoplasmic genome contributions to domestication and improvement of modern maize BMC Biology. 22:64.     Reference: March 14th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
55 days agowik1 wall immune-related kinase1:
1.03
GRMZM5G886952
Wang, P et al. 2024. The symphony of maize signaling quartet defending against gray leaf spot. Stress Biol. 4:18.     Reference: March 14th, 2024
Gene Product: July 10th, 2019
Variation: January 18th, 2024
Gene Model: February 5th, 2020
55 days agoccp1 cysteine protease1:
5.04
   Yuan, W et al. 2024. NIa-Pro of sugarcane mosaic virus targets Corn Cysteine Protease 1 (CCP1) to undermine salicylic acid-mediated defense in maize. PloS Pathogens. 20:e1012086.     Reference: March 14th, 2024
Gene Product: October 11th, 2021
Variation: May 20th, 2015
55 days agoatp6(mt) ATP synthase subunit 6:
 
GRMZM5G836952
Cao, SA et al. 2024. Cytoplasmic genome contributions to domestication and improvement of modern maize BMC Biology. 22:64.     Reference: March 14th, 2024
Variation: March 11th, 2022
Gene Model: March 11th, 2022
56 days agonrg15 nitrate regulatory gene15:
 
   Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
56 days agonrg21 nitrate regulatory gene21:
 
   Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
56 days agocel4 cellulase4:
 
   Yuanyuan Liang et al. 2024. Fulvic acid alleviates the stress of low nitrogen on maize by promoting root development and nitrogen metabolism. Physiol Plant. 176:e14249.     Reference: March 13th, 2024
Gene Product: March 20th, 2023
56 days agoGRMZM2G010640  :
 
   Yuanyuan Liang et al. 2024. Fulvic acid alleviates the stress of low nitrogen on maize by promoting root development and nitrogen metabolism. Physiol Plant. 176:e14249.     Reference: March 13th, 2024
Gene Product: September 18th, 2015
56 days agonrg1 nitrate regulatory gene1:
 
   Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
56 days agonrg2 nitrate regulatory gene2:
 
   Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
56 days agonrg3 nitrate regulatory gene3:
 
   Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
56 days agonrg4 nitrate regulatory gene4:
 
   Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
56 days agonrg5 nitrate regulatory gene5:
 
   Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
56 days agonrg8 nitrate regulatory gene8:
 
   Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
56 days agonrg9 nitrate regulatory gene9:
 
   Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
56 days agonrg10 nitrate regulatory gene10:
 
   Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
56 days agonrg11 nitrate regulatory gene11:
 
   Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
56 days agonrg12 nitrate regulatory gene12:
 
   Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
56 days agonrg13 nitrate regulatory gene13:
 
   Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
56 days agonrg14 nitrate regulatory gene14:
 
   Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
56 days agonrg17 nitrate regulatory gene17:
 
   Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
56 days agonrg18 nitrate regulatory gene18:
 
   Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
56 days agonrg22 nitrate regulatory gene22:
9.04
GRMZM2G125513
Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
Gene Model: July 15th, 2021
56 days agonrg20 nitrate regulatory gene20:
8.04
GRMZM2G074377
Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
Gene Model: August 30th, 2019
56 days agogdh2 glutamic dehydrogenase2:
10.02 - 10.04
GRMZM2G427097
Yuanyuan Liang et al. 2024. Fulvic acid alleviates the stress of low nitrogen on maize by promoting root development and nitrogen metabolism. Physiol Plant. 176:e14249.     Reference: March 13th, 2024
Gene Product: September 1st, 2003
Variation: July 11th, 2023
Gene Model: October 6th, 2015
56 days agonrg16 nitrate regulatory gene16:
7.02
AC235546.1_FG001
Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
Variation: September 1st, 2003
Gene Model: September 5th, 2018
56 days agocko5 cytokinin oxidase 5:
8.03
GRMZM2G325612
Yuanyuan Liang et al. 2024. Fulvic acid alleviates the stress of low nitrogen on maize by promoting root development and nitrogen metabolism. Physiol Plant. 176:e14249.     Reference: March 13th, 2024
Gene Product: July 19th, 2021
Variation: September 1st, 2003
Gene Model: September 17th, 2018
56 days agohsftf9 HSF-transcription factor 9:
 
   Shashidhar B Reddappa et al. 2024. Characterization of Sub-Tropically Adapted Maize Breeding Lines for Loci Governing Kernel Amylose and Resistant Starch Starch. :doi: 10.1002/star.202300289.     Reference: March 13th, 2024
Gene Product: May 15th, 2020
56 days agonpi394  :
7.03
GRMZM2G043254
Yuanyuan Liang et al. 2024. Fulvic acid alleviates the stress of low nitrogen on maize by promoting root development and nitrogen metabolism. Physiol Plant. 176:e14249.     Reference: March 13th, 2024
Variation: September 1st, 2003
Gene Model: September 8th, 2018
56 days agoumc15a  :
4.08
GRMZM2G013128
Junqiao Song et al. 2024. Genome-wide association mapping and genomic prediction of stalk rot in two mid-altitude tropical maize populations Crop J. :doi: 10.1016/j.cj.2024.02.004.     Reference: March 13th, 2024
Variation: September 1st, 2003
Gene Model: June 7th, 2018
56 days agockx6 cytokinin oxidase6:
1.08
GRMZM2G404443
Yuanyuan Liang et al. 2024. Fulvic acid alleviates the stress of low nitrogen on maize by promoting root development and nitrogen metabolism. Physiol Plant. 176:e14249.     Reference: March 13th, 2024
Gene Product: July 19th, 2021
Gene Model: January 27th, 2017
56 days agogst26 glutathione transferase26:
4.05
GRMZM2G363540
Shashidhar B Reddappa et al. 2024. Characterization of Sub-Tropically Adapted Maize Breeding Lines for Loci Governing Kernel Amylose and Resistant Starch Starch. :doi: 10.1002/star.202300289.     Reference: March 13th, 2024
Gene Product: September 1st, 2003
Gene Model: April 18th, 2017
56 days agogss1 starch synthase homolog1:
5.06
GRMZM2G105791
Xiuling Wang et al. 2024. Integrated transcriptomics and metabolomics analysis provide insights into the alleviation of waterlogging stress in maize by exogenous spermidine application J Integr Agric. :doi: 10.1016/j.jia.2024.03.041.     Reference: March 13th, 2024
Gene Product: September 1st, 2003
Variation: October 7th, 2010
Gene Model: July 12th, 2018
56 days agohag101 histone acetyl transferase GNAT/MYST 101:
5.03
GRMZM2G046021
Junqiao Song et al. 2024. Genome-wide association mapping and genomic prediction of stalk rot in two mid-altitude tropical maize populations Crop J. :doi: 10.1016/j.cj.2024.02.004.     Reference: March 13th, 2024
Gene Product: January 4th, 2018
Variation: December 14th, 2012
Gene Model: July 27th, 2016
56 days agonrg6 nitrate regulatory gene6:
3.04
   Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
56 days agoacco20 1-aminocyclopropane-1-carboxylate oxidase20:
4.07
GRMZM2G126732
Xiuling Wang et al. 2024. Integrated transcriptomics and metabolomics analysis provide insights into the alleviation of waterlogging stress in maize by exogenous spermidine application J Integr Agric. :doi: 10.1016/j.jia.2024.03.041.     Reference: March 13th, 2024
Gene Product: May 16th, 2016
Variation: March 25th, 2015
Gene Model: March 25th, 2015
56 days agoabh1 abscisic acid 8'-hydroxylase1:
 
GRMZM2G179147
Yuanyuan Liang et al. 2024. Fulvic acid alleviates the stress of low nitrogen on maize by promoting root development and nitrogen metabolism. Physiol Plant. 176:e14249.     Reference: March 13th, 2024
Gene Product: February 15th, 2013
Variation: September 1st, 2011
Gene Model: February 15th, 2013
56 days agoamt2 ammonium transporter2:
 
GRMZM2G028736
Yuanyuan Liang et al. 2024. Fulvic acid alleviates the stress of low nitrogen on maize by promoting root development and nitrogen metabolism. Physiol Plant. 176:e14249.     Reference: March 13th, 2024
Gene Product: July 8th, 2013
Gene Model: July 8th, 2013
56 days agoipt4 isopentenyl transferase4:
 
GRMZM2G104559
Yuanyuan Liang et al. 2024. Fulvic acid alleviates the stress of low nitrogen on maize by promoting root development and nitrogen metabolism. Physiol Plant. 176:e14249.     Reference: March 13th, 2024
Gene Product: March 19th, 2014
Gene Model: July 10th, 2013
56 days agoga2ox12 gibberellin 2-oxidase12:
 
GRMZM2G177104
Yuanyuan Liang et al. 2024. Fulvic acid alleviates the stress of low nitrogen on maize by promoting root development and nitrogen metabolism. Physiol Plant. 176:e14249.     Reference: March 13th, 2024
Gene Product: October 27th, 2014
Gene Model: October 30th, 2014
56 days agoacco1 1-aminocyclopropane-1-carboxylate oxidase1:
 
GRMZM2G164883
Xiuling Wang et al. 2024. Integrated transcriptomics and metabolomics analysis provide insights into the alleviation of waterlogging stress in maize by exogenous spermidine application J Integr Agric. :doi: 10.1016/j.jia.2024.03.041.     Reference: March 13th, 2024
Gene Product: May 16th, 2016
Gene Model: May 16th, 2016
56 days agoacco4 1-aminocyclopropane-1-carboxylate oxidase4:
 
GRMZM2G332423
Xiuling Wang et al. 2024. Integrated transcriptomics and metabolomics analysis provide insights into the alleviation of waterlogging stress in maize by exogenous spermidine application J Integr Agric. :doi: 10.1016/j.jia.2024.03.041.     Reference: March 13th, 2024
Gene Product: May 16th, 2016
Gene Model: May 16th, 2016
56 days agoaasr10 abscisic acid stress ripening10:
 
GRMZM2G009792
Yuanyuan Liang et al. 2024. Fulvic acid alleviates the stress of low nitrogen on maize by promoting root development and nitrogen metabolism. Physiol Plant. 176:e14249.     Reference: March 13th, 2024
Gene Product: January 2nd, 2019
Gene Model: January 2nd, 2019
56 days agonpf11 nitrate transporter/peptide transporter family11:
 
GRMZM2G061303
Yuanyuan Liang et al. 2024. Fulvic acid alleviates the stress of low nitrogen on maize by promoting root development and nitrogen metabolism. Physiol Plant. 176:e14249.     Reference: March 13th, 2024
Gene Product: September 1st, 2003
Gene Model: May 21st, 2019
56 days agoppr237 pentatricopeptide repeat protein237:
 
GRMZM2G110483
Shashidhar B Reddappa et al. 2024. Characterization of Sub-Tropically Adapted Maize Breeding Lines for Loci Governing Kernel Amylose and Resistant Starch Starch. :doi: 10.1002/star.202300289.     Reference: March 13th, 2024
Gene Product: December 27th, 2016
Variation: November 13th, 2023
Gene Model: June 12th, 2020
56 days agoga20ox6 gibberellin 20-oxidase6:
 
GRMZM2G127232
Yuanyuan Liang et al. 2024. Fulvic acid alleviates the stress of low nitrogen on maize by promoting root development and nitrogen metabolism. Physiol Plant. 176:e14249.     Reference: March 13th, 2024
Gene Product: October 28th, 2014
Gene Model: July 6th, 2020
56 days agosam3 S-adenosylmethionine decarboxylase3:
 
GRMZM2G060369
Xiuling Wang et al. 2024. Integrated transcriptomics and metabolomics analysis provide insights into the alleviation of waterlogging stress in maize by exogenous spermidine application J Integr Agric. :doi: 10.1016/j.jia.2024.03.041.     Reference: March 13th, 2024
Gene Product: September 1st, 2003
Gene Model: August 18th, 2020
56 days agopao9 polyamine oxidase9:
 
GRMZM2G071343
Xiuling Wang et al. 2024. Integrated transcriptomics and metabolomics analysis provide insights into the alleviation of waterlogging stress in maize by exogenous spermidine application J Integr Agric. :doi: 10.1016/j.jia.2024.03.041.     Reference: March 13th, 2024
Gene Product: June 10th, 2020
Gene Model: August 4th, 2022
56 days agopao10 polyamine oxidase9:
 
GRMZM2G137820
Xiuling Wang et al. 2024. Integrated transcriptomics and metabolomics analysis provide insights into the alleviation of waterlogging stress in maize by exogenous spermidine application J Integr Agric. :doi: 10.1016/j.jia.2024.03.041.     Reference: March 13th, 2024
Gene Product: June 10th, 2020
Gene Model: August 4th, 2022
56 days agonrg19 nitrate regulatory gene19:
7.06
GRMZM2G071599
Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
Gene Model: July 30th, 2020
56 days agosams2 S-adenosylmethionine synthetase2:
8.03
GRMZM2G054123
Xiuling Wang et al. 2024. Integrated transcriptomics and metabolomics analysis provide insights into the alleviation of waterlogging stress in maize by exogenous spermidine application J Integr Agric. :doi: 10.1016/j.jia.2024.03.041.     Reference: March 13th, 2024
Gene Product: January 27th, 2020
Gene Model: January 27th, 2020
56 days agonrg23 nitrate regulatory gene23:
10.05
   Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
56 days agoIDP3970  :
1.02
   Xiuling Wang et al. 2024. Integrated transcriptomics and metabolomics analysis provide insights into the alleviation of waterlogging stress in maize by exogenous spermidine application J Integr Agric. :doi: 10.1016/j.jia.2024.03.041.     Reference: March 13th, 2024
Variation: March 31st, 2005
56 days agonrg7 nitrate regulatory gene7:
3.09
   Shuna Li et al. 2024. NRG2 family members of Arabidopsis and maize regulate nitrate signalling and promote nitrogen use efficiency. Physiol Plant. 176:e14251.     Reference: March 13th, 2024
Gene Product: March 13th, 2024
56 days agoasg62  :
1.07
GRMZM2G379237
Yuanyuan Liang et al. 2024. Fulvic acid alleviates the stress of low nitrogen on maize by promoting root development and nitrogen metabolism. Physiol Plant. 176:e14249.     Reference: March 13th, 2024
Variation: February 15th, 2017
Gene Model: July 24th, 2018
57 days agobm3 brown midrib3:
4.04
GRMZM5G814904
Tian-li He et al. 2021. Gene Cloning and Transcriptome Analysis of Maize Brown Midrid Mutant bm-like1 J Plant Genet Resour. 22:1375-1382.     Reference: March 12th, 2024
Gene Product: February 16th, 2011
Variation: March 12th, 2024
Gene Model: May 21st, 2020
57 days agopgk3 phosphoglycerate kinase3:
5.04
GRMZM2G382914
Chloee M McLaughlin et al. 2024. Evidence that variation in root anatomy contributes to local adaptation in Mexican native maize. Evol Appl. 17:e13673.     Reference: March 12th, 2024
Gene Product: November 24th, 2020
Variation: September 1st, 2003
Gene Model: May 14th, 2020
57 days agoAY110540  :
3.08
GRMZM2G130358
Chloee M McLaughlin et al. 2024. Evidence that variation in root anatomy contributes to local adaptation in Mexican native maize. Evol Appl. 17:e13673.     Reference: March 12th, 2024
Variation: March 17th, 2021
Gene Model: March 20th, 2018
57 days agopdi3 protein disulfide isomerase3:
4.11
GRMZM2G134889
Chloee M McLaughlin et al. 2024. Evidence that variation in root anatomy contributes to local adaptation in Mexican native maize. Evol Appl. 17:e13673.     Reference: March 12th, 2024
Gene Product: September 1st, 2003
Variation: January 5th, 2016
Gene Model: December 18th, 2015
57 days agobx10 benzoxazinone synthesis10:
 
GRMZM2G311036
Batool, R et al. 2024. Endophytic Fungi-Mediated Defense Signaling in Maize: Unraveling the Role of WRKY36 in Regulating Immunity against Spodoptera frugiperda. Physiol Plant. 176:e14243.     Reference: March 12th, 2024
Gene Product: July 8th, 2013
Gene Model: July 8th, 2013
57 days agobx11 benzoxazinone synthesis11:
 
GRMZM2G336824
Batool, R et al. 2024. Endophytic Fungi-Mediated Defense Signaling in Maize: Unraveling the Role of WRKY36 in Regulating Immunity against Spodoptera frugiperda. Physiol Plant. 176:e14243.     Reference: March 12th, 2024
Gene Product: July 8th, 2013
Gene Model: July 8th, 2013
57 days agosacd8 stearoyl-acyl-carrier-protein desaturase8:
 
GRMZM5G883417
Chloee M McLaughlin et al. 2024. Evidence that variation in root anatomy contributes to local adaptation in Mexican native maize. Evol Appl. 17:e13673.     Reference: March 12th, 2024
Gene Product: October 10th, 2016
Variation: March 17th, 2021
Gene Model: October 10th, 2016
57 days agoaomt8 anthranilate O-methyltransferase8:
 
GRMZM2G010731
Tian-li He et al. 2021. Gene Cloning and Transcriptome Analysis of Maize Brown Midrid Mutant bm-like1 J Plant Genet Resour. 22:1375-1382.     Reference: March 12th, 2024
Gene Product: December 23rd, 2020
Gene Model: December 23rd, 2020
57 days agohpc1 High PhosphatidylCholine1:
 
GRMZM2G353444
Chloee M McLaughlin et al. 2024. Evidence that variation in root anatomy contributes to local adaptation in Mexican native maize. Evol Appl. 17:e13673.     Reference: March 12th, 2024
Gene Product: June 12th, 2020
Gene Model: March 26th, 2022
58 days agotpi4 triose phosphate isomerase4:
3.04
GRMZM2G030784
Wenyu Li et al. 2024. The cytosolic isoform of triosephosphate isomerase, ZmTPI4, is required for kernel development and starch synthesis in maize (Zea mays L.) Crop J. :doi: 10.1016/j.cj.2024.02.001.     Reference: March 11th, 2024
Gene Product: September 1st, 2003
Variation: March 11th, 2024
Gene Model: January 15th, 2015
61 days agolhca1 light harvesting complex A1:
2.08
GRMZM2G038519
Guihua Lv et al. 2024. Mechanisms Underlying the Differential Sensitivity to Mesotrione in Sweet Corn Agronomy. 14:555.     Reference: March 8th, 2024
Gene Product: September 1st, 2003
Variation: February 18th, 2015
Gene Model: February 18th, 2015
61 days agobon3 bonzai3:
6.05
GRMZM2G176995
Jing, T et al. 2024. Copine proteins are required for brassinosteroid signaling in maize and Arabidopsis Nat Commun. 15:2028.   AT1G08860 (TAIR) Reference: March 8th, 2024
Gene Product: January 3rd, 2023
Gene Model: January 8th, 2020
61 days agolhcb6 light harvesting chlorophyll a/b binding protein6:
 
GRMZM2G092427
Guihua Lv et al. 2024. Mechanisms Underlying the Differential Sensitivity to Mesotrione in Sweet Corn Agronomy. 14:555.     Reference: March 8th, 2024
Gene Product: January 8th, 2005
Variation: October 8th, 2010
Gene Model: October 9th, 2015
61 days agopsb29 photosystem II subunit29:
7.04
GRMZM2G033885
Guihua Lv et al. 2024. Mechanisms Underlying the Differential Sensitivity to Mesotrione in Sweet Corn Agronomy. 14:555.     Reference: March 8th, 2024
Gene Product: September 1st, 2003
Variation: January 8th, 2015
Gene Model: January 8th, 2015
61 days agoumc1267  :
9.03 - 9.04
GRMZM2G010884
Guihua Lv et al. 2024. Mechanisms Underlying the Differential Sensitivity to Mesotrione in Sweet Corn Agronomy. 14:555.     Reference: March 8th, 2024
Variation: September 1st, 2003
Gene Model: March 7th, 2018
61 days agolhcb2 light harvesting chlorophyll a/b binding protein2:
7.03
   Guihua Lv et al. 2024. Mechanisms Underlying the Differential Sensitivity to Mesotrione in Sweet Corn Agronomy. 14:555.     Reference: March 8th, 2024
Gene Product: January 8th, 2005
Variation: August 20th, 2014
61 days agolhcb7 light harvesting complex mesophyll7:
6.07
   Guihua Lv et al. 2024. Mechanisms Underlying the Differential Sensitivity to Mesotrione in Sweet Corn Agronomy. 14:555.     Reference: March 8th, 2024
Gene Product: January 8th, 2005
Variation: January 5th, 2013
61 days agolhcb9 light harvesting chlorophyll binding protein9:
1.08
GRMZM2G414192
Guihua Lv et al. 2024. Mechanisms Underlying the Differential Sensitivity to Mesotrione in Sweet Corn Agronomy. 14:555.     Reference: March 8th, 2024
Gene Product: January 8th, 2005
Variation: October 27th, 2016
Gene Model: October 27th, 2016
61 days agorgd2 ragged seedling2:
1.04
GRMZM5G892991
Jing, T et al. 2024. Copine proteins are required for brassinosteroid signaling in maize and Arabidopsis Nat Commun. 15:2028.     Reference: March 8th, 2024
Gene Product: August 12th, 2016
Variation: July 6th, 2010
Gene Model: September 11th, 2013
61 days agohma3 heavy metal ATPase3:
 
GRMZM2G175576
Juan Xin et al. 2024. Variations in grain yield and nutrient status of different maize cultivars by application of zinc sulfate. PLoS One. 19:e0295391.     Reference: March 8th, 2024
Gene Product: October 23rd, 2019
Variation: June 4th, 2021
Gene Model: January 27th, 2018
61 days agohma4 heavy metal ATPase4:
 
GRMZM2G455491
Juan Xin et al. 2024. Variations in grain yield and nutrient status of different maize cultivars by application of zinc sulfate. PLoS One. 19:e0295391.     Reference: March 8th, 2024
Gene Product: October 23rd, 2019
Variation: June 12th, 2020
Gene Model: January 27th, 2018
61 days agolhcb10 light harvesting chlorophyll a/b binding protein10:
 
GRMZM2G351977
Guihua Lv et al. 2024. Mechanisms Underlying the Differential Sensitivity to Mesotrione in Sweet Corn Agronomy. 14:555.     Reference: March 8th, 2024
Gene Product: September 1st, 2003
Gene Model: August 3rd, 2018
61 days agobon1 bonzai1:
 
GRMZM2G494514
Jing, T et al. 2024. Copine proteins are required for brassinosteroid signaling in maize and Arabidopsis Nat Commun. 15:2028.   AT5G61900 (TAIR) Reference: March 8th, 2024
Gene Product: January 3rd, 2023
Gene Model: July 10th, 2019
61 days agolhca2 light harvesting complex A2:
 
GRMZM2G072280
Guihua Lv et al. 2024. Mechanisms Underlying the Differential Sensitivity to Mesotrione in Sweet Corn Agronomy. 14:555.     Reference: March 8th, 2024
Gene Product: January 8th, 2005
Gene Model: April 8th, 2021
61 days agoirt2 iron-regulated transporter2:
 
GRMZM2G115190
Juan Xin et al. 2024. Variations in grain yield and nutrient status of different maize cultivars by application of zinc sulfate. PLoS One. 19:e0295391.     Reference: March 8th, 2024
Gene Product: June 5th, 2019
Gene Model: February 7th, 2022
61 days agoIDP518  :
3.09
GRMZM2G120619
Guihua Lv et al. 2024. Mechanisms Underlying the Differential Sensitivity to Mesotrione in Sweet Corn Agronomy. 14:555.     Reference: March 8th, 2024
Variation: March 31st, 2005
Gene Model: February 25th, 2019
61 days agolhcb5 light harvesting chlorophyll a/b binding protein5:
2.08
GRMZM2G149428
Guihua Lv et al. 2024. Mechanisms Underlying the Differential Sensitivity to Mesotrione in Sweet Corn Agronomy. 14:555.     Reference: March 8th, 2024
Variation: February 19th, 2015
Gene Model: February 19th, 2015
61 days agoivr2 invertase2:
5.03
   Noel Ndlovu et al. 2024. Linkage mapping and genomic prediction of grain quality traits in tropical maize (Zea mays L.). Frontiers in Genetics. 15:1353289.     Reference: March 8th, 2024
Gene Product: June 12th, 2018
Variation: May 18th, 2012
62 days agogl17 glossy17:
5.03
   Wang, D et al. 2010. Plant J 63:939-951     Reference: January 18th, 2023
Variation: March 7th, 2024
62 days agoo1 opaque endosperm1:
4.08 - 4.08
GRMZM2G449909
Gallagher, Kimberly and Smith, LG. 1999. Development 126:4623-4633     Reference: March 7th, 2024
Gene Product: September 1st, 2003
Variation: October 9th, 2017
Gene Model: August 28th, 2012
62 days agodcd1 discordia1:
10.03
   Gallagher, Kimberly and Smith, LG. 1999. Development 126:4623-4633     Reference: March 7th, 2024
Variation: March 7th, 2024
62 days agopdi13 protein disulfide isomerase13:
 
GRMZM2G376542
Feng, XJ et al. 2024. Profiling the selected hotspots for ear traits in two maize–teosinte populations Theor Appl Genet. 137:74.     Reference: March 7th, 2024
Gene Product: September 1st, 2003
Gene Model: August 4th, 2020
63 days agopan1 pangloss1:
 
GRMZM5G836190
Facette, MR et al. 2015. Nature Plants 0:Article number: 14024     Reference: March 6th, 2024
Gene Product: November 27th, 2012
Variation: July 11th, 2014
Gene Model: November 2nd, 2011
63 days agobrk2 brick2:
1.01
   Facette, MR et al. 2015. Nature Plants 0:Article number: 14024     Reference: March 6th, 2024
Variation: March 5th, 2024
63 days agobrk3 brick3:
10.01 - 10.02
GRMZM2G180150
Facette, MR et al. 2015. Nature Plants 0:Article number: 14024   AT2G35110 (TAIR)
Os08G0544500 (Gramene)
Reference: March 6th, 2024
Gene Product: August 12th, 2015
Variation: March 6th, 2024
Gene Model: August 11th, 2015
63 days agocesa8 cellulose synthase8:
7.02
   Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: October 7th, 2016
Variation: January 3rd, 2014
63 days agopip2f plasma membrane intrinsic protein2:
7.02
   Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: September 1st, 2003
Variation: March 26th, 2013
63 days agotip2 tonoplast intrinsic protein2:
8.06
GRMZM2G168439
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: September 1st, 2003
Variation: August 27th, 2015
Gene Model: May 15th, 2015
63 days agosut1 sucrose transporter1:
1.02
GRMZM2G034302
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: September 14th, 2013
Variation: April 16th, 2013
Gene Model: April 16th, 2013
63 days agovpp8 vacuolar proton pump8:
7.04
GRMZM2G019999
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: September 1st, 2003
Gene Model: August 25th, 2018
63 days agobrk1 brick1:
5.08
GRMZM5G842058
Facette, MR et al. 2015. Nature Plants 0:Article number: 14024     Reference: March 6th, 2024
Gene Product: August 12th, 2015
Variation: August 11th, 2015
Gene Model: October 28th, 2013
63 days agosut3 sucrose transporter3:
1.08
GRMZM2G083248
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: September 14th, 2013
Variation: April 13th, 2017
Gene Model: November 3rd, 2015
63 days agomlo4 barley mlo defense gene homolog4:
4.09
   Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Variation: April 14th, 2012
63 days agosut4 sucrose transporter4:
5.09
GRMZM2G145107
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: September 14th, 2013
Variation: February 17th, 2017
Gene Model: April 17th, 2013
63 days agomrpa2 multidrug resistance associated protein2:
7.02
GRMZM5G832772
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: July 11th, 2019
Variation: January 12th, 2016
Gene Model: January 12th, 2016
63 days agomrpa6 multidrug resistance associated protein6:
 
GRMZM2G142870
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: July 11th, 2019
Gene Model: January 12th, 2016
63 days agomrpa9 multidrug resistance associated protein9:
 
GRMZM2G365957
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: July 11th, 2019
Gene Model: July 11th, 2019
63 days agopan2 pangloss2:
 
GRMZM2G034572
Facette, MR et al. 2015. Nature Plants 0:Article number: 14024     Reference: March 6th, 2024
Gene Product: November 27th, 2012
Variation: November 27th, 2012
Gene Model: November 27th, 2012
63 days agodct1 dicarboxylic acid transporter1:
 
GRMZM2G040933
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: August 18th, 2014
Gene Model: August 18th, 2014
63 days agolaz4 lazarus ortholog4:
 
GRMZM2G100419
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: July 27th, 2019
Gene Model: July 27th, 2019
63 days agolaz5 lazarus ortholog5:
 
GRMZM2G035445
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: July 27th, 2019
Gene Model: July 27th, 2019
63 days agothx44 Trihelix-transcription factor 44:
 
GRMZM2G122277
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: November 9th, 2021
Gene Model: August 7th, 2019
63 days agocipk4 calcineurin B-like-interacting protein kinase4:
 
GRMZM2G472643
Xiuzhen Kong et al. 2024. Ethylene regulates auxin-mediated root gravitropic machinery and controls root angle in cereal crops. Plant Physiol. :doi: 10.1093/plphys/kiae134.   AT4G14580 (TAIR) Reference: March 6th, 2024
Gene Product: August 25th, 2018
Variation: June 25th, 2021
Gene Model: November 21st, 2019
63 days agopme12 pectin methylesterase12:
 
GRMZM2G158240
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
63 days agopme13 pectin methylesterase13:
 
GRMZM2G008593
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
63 days agopme19 pectin methylesterase19:
 
GRMZM2G136106
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
63 days agopme20 pectin methylesterase20:
 
GRMZM2G025182
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
63 days agopme22 pectin methylesterase22:
 
GRMZM2G167637
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
63 days agohak19 potassium high-affinity transporter19:
 
GRMZM2G021725
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: March 12th, 2020
Gene Model: March 12th, 2020
63 days agohak23 potassium high-affinity transporter23:
 
GRMZM2G036916
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: March 12th, 2020
Gene Model: March 12th, 2020
63 days agofax2 fatty acid export2:
 
GRMZM2G143389
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: March 14th, 2020
Gene Model: March 14th, 2020
63 days agosfr2 sensitivity to freezing2:
 
AC148152.3_FG008
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.   AT3G06510 (TAIR) Reference: March 6th, 2024
Gene Product: June 26th, 2019
Gene Model: March 24th, 2020
63 days agomsl3 mechanosensitive channel of small conductance-like3:
 
GRMZM2G027891
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Gene Product: October 8th, 2020
Gene Model: October 8th, 2020
63 days agopco066521  :
 
GRMZM2G410812
Facette, MR et al. 2015. Nature Plants 0:Article number: 14024     Reference: March 6th, 2024
Gene Product: August 12th, 2015
Gene Model: August 12th, 2015
63 days agoIDP1437a  :
1.01
GRMZM2G103599
Facette, MR et al. 2015. Nature Plants 0:Article number: 14024   AT5G18410 (TAIR)
LOC_Os03g05020 (MSU/TIGR)
Reference: March 6th, 2024
Variation: March 31st, 2005
Gene Model: February 14th, 2019
63 days agoIDP778  :
6.01
GRMZM2G099619
Sarah Tepler Drobnitch et al. 2024. Searching for mechanisms driving root pressure in Zea mays—a transcriptomic approach J Plant Physiol. :doi: 10.1016/j.jplph.2024.154209.     Reference: March 6th, 2024
Variation: March 31st, 2005
Gene Model: February 19th, 2021
64 days agosci2 subtilisin-chymotrypsin inhibitor homolog2:
 
   Yuanlong Chen et al. 2024. Salicylic acid inducing the expression of maize anti-insect gene SPI: a potential control strategy for Ostrinia furnacalis BMC Plant Biology. 24:152.     Reference: March 5th, 2024
Gene Product: March 5th, 2024
64 days agocchh25 Cys2His2 Zinc Finger25:
 
   Ji, XZ et al. 2024. WGCNA analysis of the effect of exogenous BR on leaf angle of maize mutant lpa1 Sci. Rep.. :doi: 10.1038/s41598-024-55835-7.   AT2G01940 (TAIR)
LOC_Os03g13400 (MSU/TIGR)
Os03g0237250 (Gramene)
Reference: March 5th, 2024
Gene Product: November 14th, 2022
Variation: April 28th, 2022
64 days agozim29 ZIM-transcription factor 29:
 
   Yuanlong Chen et al. 2024. Salicylic acid inducing the expression of maize anti-insect gene SPI: a potential control strategy for Ostrinia furnacalis BMC Plant Biology. 24:152.     Reference: March 5th, 2024
Gene Product: February 24th, 2021
64 days agocesa3 cellulose synthase3:
3.03
   Yuting Zhang et al. 2024. Characterization of ZmCesAs for Secondary Cell Wall Biosynthesis in Maize J Plant Biol. :doi: 10.1007/s12374-023-09420-6.     Reference: March 5th, 2024
Gene Product: October 7th, 2016
Variation: February 27th, 2015
64 days agocesa4 cellulose synthase4:
7.02
GRMZM2G424832
Yuting Zhang et al. 2024. Characterization of ZmCesAs for Secondary Cell Wall Biosynthesis in Maize J Plant Biol. :doi: 10.1007/s12374-023-09420-6.     Reference: March 5th, 2024
Gene Product: October 7th, 2016
Variation: January 3rd, 2014
Gene Model: July 22nd, 2015
64 days agocesa5 cellulose synthase5:
1.11
   Yuting Zhang et al. 2024. Characterization of ZmCesAs for Secondary Cell Wall Biosynthesis in Maize J Plant Biol. :doi: 10.1007/s12374-023-09420-6.     Reference: March 5th, 2024
Gene Product: October 7th, 2016
Variation: September 1st, 2003
64 days agocesa6 cellulose synthase6:
1.11
   Yuting Zhang et al. 2024. Characterization of ZmCesAs for Secondary Cell Wall Biosynthesis in Maize J Plant Biol. :doi: 10.1007/s12374-023-09420-6.     Reference: March 5th, 2024
Gene Product: October 7th, 2016
Variation: November 14th, 2012
64 days agocesa9 cellulose synthase9:
2.06
   Yuting Zhang et al. 2024. Characterization of ZmCesAs for Secondary Cell Wall Biosynthesis in Maize J Plant Biol. :doi: 10.1007/s12374-023-09420-6.     Reference: March 5th, 2024
Gene Product: October 7th, 2016
Variation: January 3rd, 2014
64 days agosci1 subtilisin-chymotrypsin inhibitor homolog1:
8.05
   Lukas Dorian Dittiger et al. 2023. Plant Responses of Maize to Two formae speciales of Sporisorium reilianum Support Recent Fungal Host Jump Int J Mol Sci. 24:15604.     Reference: October 26th, 2023
Gene Product: March 5th, 2024
Variation: August 25th, 2015
64 days agonpr1 nonexpressor of pathogenesis-related genes homolog 1:
 
GRMZM2G076450
Yuanlong Chen et al. 2024. Salicylic acid inducing the expression of maize anti-insect gene SPI: a potential control strategy for Ostrinia furnacalis BMC Plant Biology. 24:152.     Reference: March 5th, 2024
Gene Product: January 18th, 2021
Gene Model: January 18th, 2021
64 days agocesa10 cellulose synthase10:
1.08
GRMZM2G445905
Yuting Zhang et al. 2024. Characterization of ZmCesAs for Secondary Cell Wall Biosynthesis in Maize J Plant Biol. :doi: 10.1007/s12374-023-09420-6.     Reference: March 5th, 2024
Gene Product: October 7th, 2016
Variation: March 5th, 2024
Gene Model: July 22nd, 2015
64 days agocesa11 cellulose synthase 11:
3.07
GRMZM2G055795
Yuting Zhang et al. 2024. Characterization of ZmCesAs for Secondary Cell Wall Biosynthesis in Maize J Plant Biol. :doi: 10.1007/s12374-023-09420-6.     Reference: March 5th, 2024
Gene Product: October 7th, 2016
Variation: March 5th, 2024
Gene Model: July 22nd, 2015
64 days agocesa12 cellulose synthase 12:
7.02
GRMZM2G142898
Yuting Zhang et al. 2024. Characterization of ZmCesAs for Secondary Cell Wall Biosynthesis in Maize J Plant Biol. :doi: 10.1007/s12374-023-09420-6.     Reference: March 5th, 2024
Gene Product: October 7th, 2016
Variation: March 5th, 2024
Gene Model: July 22nd, 2015
65 days agoumc1722  :
5.05
GRMZM2G153368
Richard F Davis et al. 2024. A QTL on Maize Chromosome 5 is Associated with Root-Knot Nematode Resistance. Phytopathology. :doi: 10.1094/PHYTO-08-23-0286-R.     Reference: March 4th, 2024
Variation: September 1st, 2003
Gene Model: March 12th, 2021
65 days agodef4 defensin-like protein4:
 
GRMZM2G153488
Richard F Davis et al. 2024. A QTL on Maize Chromosome 5 is Associated with Root-Knot Nematode Resistance. Phytopathology. :doi: 10.1094/PHYTO-08-23-0286-R.     Reference: March 4th, 2024
Gene Product: December 12th, 2022
Gene Model: September 16th, 2017
72 days agoprd3 putative recombination initiation defect3:
 
   Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.   AT1G01690 (TAIR)
LOC_Os03g01590 (MSU/TIGR)
Reference: February 26th, 2024
Variation: October 12th, 2022
72 days agofigl1 fidgetin-like1:
 
   Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Variation: June 9th, 2023
72 days agoms45 male sterile45:
9.06
   Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: September 29th, 2023
Variation: June 27th, 2014
72 days agoms33 male sterile33:
2.09
GRMZM2G070304
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.   LOC_Os11g45400 (MSU/TIGR) Reference: February 26th, 2024
Gene Product: March 25th, 2019
Variation: December 4th, 2018
Gene Model: March 17th, 2018
72 days agoinvan6 invertase alkaline neutral6:
5.03
GRMZM2G477236
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: June 12th, 2018
Variation: September 15th, 2022
Gene Model: August 28th, 2021
72 days agorf8 restorer of fertility8:
2.05 - 2.10
   Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Variation: September 1st, 2003
72 days agolox3 lipoxygenase3:
3.06
   Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.     Reference: February 26th, 2024
Gene Product: January 3rd, 2018
Variation: November 16th, 2020
72 days agoga2ox6 gibberellin 2-oxidase6:
6.05
   Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.     Reference: February 26th, 2024
Gene Product: October 27th, 2014
72 days agoabp1 auxin binding protein1:
3.05 - 3.05
   Gentzel, IN et al. 2024. Effects of Maize Chlorotic Mottle Virus and Potyvirus Resistance on Maize Lethal Necrosis Disease. Phytopathology. :doi: 10.1094/PHYTO-05-23-0171-R.     Reference: February 26th, 2024
Gene Product: September 1st, 2003
Variation: August 23rd, 2017
72 days agoafd1 absence of first division1:
6.07
GRMZM2G059037
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.   AT5G05490 (TAIR)
LOC_Os05g50410 (MSU/TIGR)
Os05g0580500 (Gramene)
Reference: February 26th, 2024
Gene Product: July 30th, 2009
Variation: August 11th, 2011
Gene Model: July 14th, 2011
72 days agoam1 ameiotic1:
5.02
   Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Variation: August 11th, 2011
72 days agoas1 asynaptic1:
1.05
   Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Variation: December 4th, 2012
72 days agodsy2 desynaptic2:
5.03 - 5.04
AC210848.3_FG004
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.   AT2G46980 (TAIR)
LOC_Os10g26560 (MSU/TIGR)
Reference: February 26th, 2024
Gene Product: August 25th, 2015
Variation: August 25th, 2015
Gene Model: August 25th, 2015
72 days agoet1 etched1:
3.09
   Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.     Reference: February 26th, 2024
Variation: November 11th, 2010
72 days agoms10 male sterile10:
10.04 - 10.05
GRMZM5G830329
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.   AT1G01280 (TAIR)
LOC_Os08g03682 (MSU/TIGR)
Reference: February 26th, 2024
Gene Product: January 20th, 2017
Variation: January 19th, 2017
Gene Model: January 19th, 2017
72 days agoms13 male sterile13:
5.00 - 5.01
   Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: December 28th, 2015
Variation: September 19th, 2022
72 days agoms2 male sterile2:
9.03
GRMZM2G076526
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: December 28th, 2015
Variation: April 23rd, 2021
Gene Model: April 23rd, 2021
72 days agoms22 male sterile22:
7.02
GRMZM2G442791
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: January 21st, 2021
Variation: February 12th, 2013
Gene Model: August 11th, 2012
72 days agoms5 male sterile5:
5.04 - 5.05
GRMZM2G166330
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: January 25th, 2019
Variation: September 16th, 2020
Gene Model: September 16th, 2020
72 days agoms7 male sterile7:
7.02
GRMZM5G890224
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.   AT5G22260 (TAIR)
LOC_Os09g27620 (MSU/TIGR)
Os09g0449000 (Gramene)
Reference: February 26th, 2024
Gene Product: July 8th, 2017
Variation: September 9th, 2020
Gene Model: July 6th, 2017
72 days agorf1 restorer of fertility1:
3.04
   Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Variation: September 1st, 2003
72 days agorf5 restorer of fertility5:
 
   Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Variation: September 1st, 2003
72 days agoms30 male sterile30:
4.08
GRMZM2G174782
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: January 25th, 2019
Variation: January 25th, 2019
Gene Model: January 25th, 2019
72 days agozyp1 synaptonemal complex protein ZIPPER1:
 
GRMZM2G143590
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: March 2nd, 2011
Variation: March 2nd, 2011
Gene Model: June 19th, 2014
72 days agozim28 ZIM-transcription factor 28:
7.02
GRMZM2G116614
Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.     Reference: February 26th, 2024
Gene Product: February 24th, 2021
Variation: July 6th, 2021
Gene Model: December 6th, 2016
72 days agoscmv1 resistance to sugarcane mosaic virus1:
6.00 - 6.01
GRMZM2G014055
Gentzel, IN et al. 2024. Effects of Maize Chlorotic Mottle Virus and Potyvirus Resistance on Maize Lethal Necrosis Disease. Phytopathology. :doi: 10.1094/PHYTO-05-23-0171-R.     Reference: February 26th, 2024
Gene Product: September 1st, 2003
Variation: June 29th, 2005
Gene Model: September 7th, 2017
72 days agodof47 C2C2-Dof-transcription factor 1:
 
   Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.     Reference: February 26th, 2024
Variation: July 8th, 2017
72 days agozim30 ZIM-transcription factor 30:
 
   Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.     Reference: February 26th, 2024
Gene Product: February 24th, 2021
72 days agobhlh122 bHLH-transcription factor 122:
 
   Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.   LOC_Os04g51070 (MSU/TIGR) Reference: February 26th, 2024
Variation: January 10th, 2022
72 days agobhlh51 bHLH-transcription factor 51:
 
   Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: September 14th, 2016
Variation: January 10th, 2022
72 days agoexpa4 alpha-expansin4:
1.11
GRMZM2G368886
Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.     Reference: February 26th, 2024
Variation: December 1st, 2016
Gene Model: December 1st, 2016
72 days agoiaa22 Aux/IAA-transcription factor 22:
5.03
GRMZM2G128421
Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.     Reference: February 26th, 2024
Variation: September 1st, 2003
Gene Model: June 16th, 2018
72 days agoms32 male sterile32:
2.00 - 2.10
GRMZM2G163233
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: September 2nd, 2013
Variation: December 4th, 2016
Gene Model: September 2nd, 2013
72 days agogid1 gibberellin-insensitive dwarf protein homolog1:
6.05
GRMZM2G173630
Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.     Reference: February 26th, 2024
Gene Product: October 6th, 2021
Gene Model: August 28th, 2018
72 days agolaz1 lazarus ortholog1:
7.03
GRMZM2G025242
Lu, XF et al. 2024. Joint-GWAS, Linkage Mapping, and Transcriptome Analysis to Reveal the Genetic Basis of Plant Architecture-Related Traits in Maize Int J Mol Sci. 25:2694.     Reference: February 26th, 2024
Gene Product: July 27th, 2019
Gene Model: September 10th, 2018
72 days agoga20ox4 gibberellin 20-oxidase4:
5.03 - 5.03
GRMZM2G060940
Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.     Reference: February 26th, 2024
Gene Product: October 28th, 2014
Gene Model: October 27th, 2014
72 days agodv1 divergent spindle1:
2.02
GRMZM2G114861
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: September 18th, 2023
Variation: August 17th, 2016
Gene Model: August 13th, 2014
72 days agoms42 male sterile42:
6.07
   Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: September 1st, 2003
Variation: December 22nd, 2012
72 days agomac1 multiple archesporial cells1:
10.03
GRMZM2G027522
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: August 2nd, 2012
Variation: August 10th, 2012
Gene Model: July 26th, 2012
72 days agosgo1 shugoshin centromeric cohesion1:
7.02
GRMZM2G074082
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: July 29th, 2009
Variation: August 13th, 2011
Gene Model: July 14th, 2011
72 days agoga20ox1 gibberellin 20-oxidase1:
1.12
AC203966.5_FG005
Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.     Reference: February 26th, 2024
Gene Product: October 28th, 2014
Gene Model: October 27th, 2014
72 days agoexpb4 beta expansin4:
7.02
GRMZM2G154178
Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.     Reference: February 26th, 2024
Variation: May 31st, 2010
Gene Model: March 2nd, 2016
72 days agopme2 pectin methylesterase2:
 
GRMZM2G046618
Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.     Reference: February 26th, 2024
Gene Product: September 10th, 2018
Gene Model: April 26th, 2014
72 days agorad51c recombination protein51 gene c:
 
GRMZM2G123089
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: August 12th, 2016
Variation: November 5th, 2019
Gene Model: June 19th, 2014
72 days agotms5 thermosensitive male-sterile5:
4.01
GRMZM2G147727
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.   LOC_Os02g12290 (MSU/TIGR)
Os02g0214300 (Gramene)
Reference: February 26th, 2024
Variation: February 24th, 2017
Gene Model: February 24th, 2017
72 days agoga20ox5 gibberellin 20-oxidase5:
 
GRMZM2G060940
Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.     Reference: February 26th, 2024
Gene Product: October 28th, 2014
Variation: July 6th, 2017
Gene Model: October 27th, 2014
72 days agoga2ox2 gibberellin 2-oxidase2:
 
GRMZM2G006964
Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.     Reference: February 26th, 2024
Gene Product: October 27th, 2014
Gene Model: October 27th, 2014
72 days agohct8 hydroxycinnamoyltransferase8:
 
GRMZM2G178769
Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.     Reference: February 26th, 2024
Gene Product: November 7th, 2015
Gene Model: November 7th, 2015
72 days agomsp1 multiple sporocyte1:
 
GRMZM2G447447
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.   AT5G07280 (TAIR)
LOC_Os01g68870 (MSU/TIGR)
Reference: February 26th, 2024
Gene Product: July 10th, 2019
Gene Model: February 17th, 2018
72 days agoms39 male sterile39:
 
GRMZM5G804976
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: July 5th, 2021
Variation: October 14th, 2022
Gene Model: September 28th, 2018
72 days agoili1 increased leaf inclination1:
 
GRMZM2G072820
Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.   LOC_Os04g54900 (MSU/TIGR)
Os04g0641700 (Gramene)
Reference: February 26th, 2024
Gene Product: September 14th, 2016
Variation: September 19th, 2019
Gene Model: September 19th, 2019
72 days agoprd1 putative recombination initiation defect1:
 
GRMZM2G308884
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Variation: February 24th, 2022
Gene Model: November 5th, 2019
72 days agosmc3 structural maintenance of chromosomes3:
 
GRMZM2G456570
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: December 10th, 2019
Variation: January 30th, 2020
Gene Model: January 30th, 2020
72 days agochls1 chalcone synthase1:
 
GRMZM2G108894
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: September 1st, 2003
Variation: August 17th, 2022
Gene Model: September 9th, 2020
72 days agomtopvib1 meiotic TopoVI B subunit1:
 
GRMZM2G439198
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: October 21st, 2020
Variation: October 23rd, 2020
Gene Model: October 21st, 2020
72 days agopal11 phenylalanine ammonia lyase11:
 
   Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.     Reference: February 26th, 2024
Gene Product: August 13th, 2022
72 days agopgl16 polygalacturonase16:
 
GRMZM2G174598
Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.     Reference: February 26th, 2024
Gene Product: October 4th, 2021
Gene Model: October 4th, 2021
72 days agobm5 brown midrib5:
5.04
GRMZM2G075333
Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.     Reference: February 26th, 2024
Gene Product: April 1st, 2017
Variation: April 10th, 2019
Gene Model: June 23rd, 2016
72 days agobrca2 breast cancer susceptibility2 homolog:
 
GRMZM5G857087
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Variation: June 9th, 2023
Gene Model: March 14th, 2022
72 days agoacoz1 abnormal chromosome organization in zygotene1:
 
GRMZM2G135481
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: April 27th, 2022
Variation: March 24th, 2022
Gene Model: March 24th, 2022
72 days agoZm00001d012510  :
 
GRMZM2G010468
Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.   AT2G30490 (TAIR) Reference: February 26th, 2024
Gene Product: December 29th, 2022
Gene Model: August 14th, 2022
72 days agoZm00001d037849  :
 
GRMZM2G147245
Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.   AT2G30490 (TAIR) Reference: February 26th, 2024
Gene Product: December 29th, 2022
Gene Model: August 14th, 2022
72 days agoZm00001d016471  :
 
GRMZM2G028677
Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.   AT2G30490 (TAIR) Reference: February 26th, 2024
Gene Product: December 29th, 2022
Gene Model: August 14th, 2022
72 days agosmc6 structural maintenance of chromosomes6:
7.02
GRMZM2G025340
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: December 10th, 2019
Gene Model: June 7th, 2022
72 days agocyp47 cytochrome P450 47:
8.03
GRMZM2G139874
Yao, QQ et al. 2024. Integrated Metabolome and Transcriptome Analysis of Gibberellins Mediated the Circadian Rhythm of Leaf Elongation by Regulating Lignin Synthesis in Maize Int J Mol Sci. 25:2705.   AT2G30490 (TAIR) Reference: February 26th, 2024
Gene Product: December 30th, 2022
Gene Model: September 5th, 2021
72 days agorad17 RAD17 DNA repair protein homolog:
9.06
GRMZM2G051138
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.   LOC_Os03g13850 (MSU/TIGR) Reference: February 26th, 2024
Gene Product: February 27th, 2021
Variation: February 27th, 2021
Gene Model: June 26th, 2020
72 days agodcl102 dicer-like 102:
1.07
GRMZM2G413853
Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Gene Product: September 5th, 2006
Variation: June 9th, 2020
Gene Model: January 29th, 2015
72 days agorf9 restorer of fertility9:
 
   Chen, XY et al. 2024. Molecular Mechanisms of Male Sterility in Maize Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01441-w.     Reference: February 26th, 2024
Variation: May 16th, 2013
74 days agoadf16 actin depolymerizing factor16:
 
   Liu, BJ et al. 2024. ZmADF5, a Maize Actin-Depolymerizing Factor Conferring Enhanced Drought Tolerance in Maize Plants. 13:619.     Reference: February 24th, 2024
Gene Product: March 4th, 2020
75 days agoprh56 protein phosphatase homolog56:
7.02
GRMZM2G135444
Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: February 4th, 2019
75 days agocadtfr8 CCAAT-DR1-transcription factor 8:
8.07
GRMZM5G866699
Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: June 18th, 2018
Variation: September 1st, 2003
Gene Model: September 24th, 2018
75 days agofea5 fasciated ear5:
4.02
GRMZM2G154523
Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: January 7th, 2023
Variation: January 7th, 2023
Gene Model: May 16th, 2017
75 days agoiaa4 Aux/IAA-transcription factor4:
1.10
GRMZM2G159285
Gwendolyn K Kirschner et al. 2024. Genetic regulation of the root angle in cereals Trends Plant Sci. :doi: 10.1016/j.tplants.2024.01.008.     Reference: February 23rd, 2024
Variation: November 15th, 2016
Gene Model: November 15th, 2016
75 days agonfya1 nuclear transcription factor y subunit a1:
1.02
GRMZM2G000686
Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
Variation: July 21st, 2022
Gene Model: May 18th, 2016
75 days agoarftf29 ARF-transcription factor 29:
 
   Gwendolyn K Kirschner et al. 2024. Genetic regulation of the root angle in cereals Trends Plant Sci. :doi: 10.1016/j.tplants.2024.01.008.     Reference: February 23rd, 2024
Gene Product: January 29th, 2022
75 days agoarftf30 ARF-transcription factor 30:
 
   Gwendolyn K Kirschner et al. 2024. Genetic regulation of the root angle in cereals Trends Plant Sci. :doi: 10.1016/j.tplants.2024.01.008.     Reference: February 23rd, 2024
Gene Product: January 29th, 2022
75 days agoarftf38 ARF-transcription factor 38:
 
   Gwendolyn K Kirschner et al. 2024. Genetic regulation of the root angle in cereals Trends Plant Sci. :doi: 10.1016/j.tplants.2024.01.008.     Reference: February 23rd, 2024
Gene Product: January 29th, 2022
75 days agocadtfr11 CCAAT-DR1-transcription factor 11:
 
   Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
75 days agocadtfr14 CCAAT-DR1-transcription factor 14:
 
   Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
75 days agocadtfr16 CCAAT-DR1-transcription factor 16:
 
   Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
75 days agocadtfr2 CCAAT-DR1-transcription factor 2:
 
   Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
75 days agocadtfr3 CCAAT-DR1-transcription factor 3:
 
   Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
75 days agocadtfr5 CCAAT-DR1-transcription factor 5:
 
   Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
75 days agocadtfr6 CCAAT-DR1-transcription factor 6:
 
   Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
75 days agocadtfr7 CCAAT-DR1-transcription factor 7:
 
   Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
75 days agoca2p10 CCAAT-HAP2-transcription factor 210:
 
   Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
75 days agoca2p12 CCAAT-HAP2-transcription factor 212:
 
   Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
75 days agoca2p13 CCAAT-HAP2-transcription factor 213:
 
   Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
75 days agoca2p14 CCAAT-HAP2-transcription factor 214:
 
   Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
75 days agoca2p15 CCAAT-HAP2-transcription factor 215:
 
   Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
75 days agoca2p16 CCAAT-HAP2-transcription factor 216:
 
   Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
75 days agoca2p4 CCAAT-HAP2-transcription factor4:
 
   Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
Variation: September 24th, 2021
75 days agoca2p5 CCAAT-HAP2-transcription factor 25:
 
   Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
75 days agoca2p7 CCAAT-HAP2-transcription factor 27:
 
   Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
75 days agoca3p1 CCAAT-HAP3-transcription factor 31:
 
   Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
75 days agoca3p3 CCAAT-HAP3-transcription factor 33:
 
   Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
75 days agoca3p4 CCAAT-HAP3-transcription factor 34:
 
   Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
75 days agoca5p11 CCAAT-HAP5-transcription factor 511:
 
   Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
75 days agoumc1562  :
8.05
GRMZM2G059693
Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Variation: September 19th, 2018
Gene Model: September 19th, 2018
75 days agonfy2 NF-YB homolog:
6.05
GRMZM5G804893
Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
Variation: September 1st, 2003
Gene Model: September 10th, 2014
75 days agocadtfr15 CCAAT-DR1-transcription factor 15:
8.04
GRMZM2G064426
Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
Variation: September 1st, 2003
Gene Model: September 19th, 2018
75 days agolec1 LEC1 transcription factor1:
5.06
GRMZM2G490094
Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
Gene Model: April 8th, 2011
75 days agoagal1 alpha-galactosidase1:
1.07
GRMZM2G346455
Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: September 1st, 2003
Variation: February 14th, 2019
Gene Model: April 14th, 2016
75 days agogpat3 glycerol-3-phosphate acyltransferase3:
 
GRMZM2G156729
Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: March 25th, 2019
Gene Model: March 25th, 2019
75 days agogpat8 glycerol-3-phosphate acyltransferase8:
 
GRMZM2G065203
Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: March 25th, 2019
Gene Model: March 25th, 2019
75 days agoaomt9 anthranilate O-methyltransferase9:
 
GRMZM2G303419
Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: December 23rd, 2020
Gene Model: December 23rd, 2020
75 days agoplc5 phospholipase C5:
 
GRMZM2G157760
Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: January 12th, 2021
Gene Model: January 12th, 2021
75 days agoglpx2 glutathione peroxidase2:
 
GRMZM2G013299
Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: March 4th, 2022
Gene Model: March 4th, 2022
75 days agoplt52 phospholipid transfer protein52:
8.08
GRMZM2G379035
Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: September 1st, 2003
Gene Model: September 3rd, 2019
75 days agocadtfr12 CCAAT-DR1-transcription factor 12:
9.03
GRMZM2G167576
Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: August 9th, 2016
Gene Model: August 8th, 2016
75 days agoAY110240  :
1.03
GRMZM2G013957
Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Variation: July 29th, 2004
Gene Model: February 12th, 2019
75 days agodbb4 double B-box zinc finger protein4:
4.05
GRMZM2G019335
Bai, Y et al. 2024. ZmNF-YC1-ZmAPRG pathway modulates low phosphorus tolerance in maize J Exp Bot. :doi: 10.1093/jxb/erae068.     Reference: February 23rd, 2024
Gene Product: May 10th, 2017
Variation: May 10th, 2017
Gene Model: May 10th, 2017
76 days agoZm00001d045313  :
 
   Quaggiotti, S et al. 2024. Strigolactone roles in maize tolerance to low nitrogen involve shifts in acquisition and partitioning of protein, sulfur, and iron Plant Soil. :dpi: 10.1007/s11104-024-06561-6.     Reference: February 22nd, 2024
Gene Product: April 27th, 2022
76 days agopdr1 pleiotropic drug resistance protein1:
 
   Quaggiotti, S et al. 2024. Strigolactone roles in maize tolerance to low nitrogen involve shifts in acquisition and partitioning of protein, sulfur, and iron Plant Soil. :dpi: 10.1007/s11104-024-06561-6.     Reference: February 22nd, 2024
Gene Product: December 28th, 2015
76 days agotps10 terpene synthase10:
10.03
GRMZM2G179092
Jamie M Waterman et al. 2024. High-resolution kinetics of herbivore-induced plant volatile transfer reveal clocked response patterns in neighboring plants. Elife. 12:RP89855.     Reference: February 22nd, 2024
Gene Product: September 4th, 2008
Variation: April 2nd, 2023
Gene Model: May 28th, 2012
76 days agoumc1336  :
10.03
GRMZM2G061135
Quaggiotti, S et al. 2024. Strigolactone roles in maize tolerance to low nitrogen involve shifts in acquisition and partitioning of protein, sulfur, and iron Plant Soil. :dpi: 10.1007/s11104-024-06561-6.     Reference: February 22nd, 2024
Gene Product: January 27th, 2020
Variation: September 1st, 2003
Gene Model: December 12th, 2017
76 days agohb1 hemoglobin1:
9.06
GRMZM2G067402
Quaggiotti, S et al. 2024. Strigolactone roles in maize tolerance to low nitrogen involve shifts in acquisition and partitioning of protein, sulfur, and iron Plant Soil. :dpi: 10.1007/s11104-024-06561-6.     Reference: February 22nd, 2024
Gene Product: February 20th, 2018
Variation: September 24th, 2010
Gene Model: May 15th, 2014
76 days agosfp5 sulfate transporter5:
9.02
GRMZM2G444801
Quaggiotti, S et al. 2024. Strigolactone roles in maize tolerance to low nitrogen involve shifts in acquisition and partitioning of protein, sulfur, and iron Plant Soil. :dpi: 10.1007/s11104-024-06561-6.     Reference: February 22nd, 2024
Gene Product: May 8th, 2020
Gene Model: March 14th, 2018
76 days agoopr7 12-oxo-phytodienoic acid reductase7:
 
GRMZM2G148281
Jamie M Waterman et al. 2024. High-resolution kinetics of herbivore-induced plant volatile transfer reveal clocked response patterns in neighboring plants. Elife. 12:RP89855.     Reference: February 22nd, 2024
Gene Product: September 3rd, 2010
Variation: December 16th, 2019
Gene Model: November 25th, 2013
76 days agolhy1 late hypocotyl elongation protein ortholog1:
10.03
GRMZM2G175265
Sangam Lal Dwivedi et al. 2024. Unlocking allelic variation in circadian clock genes to develop environmentally robust and productive crops. Planta. 259:72.     Reference: February 22nd, 2024
Gene Product: July 31st, 2016
Variation: December 28th, 2016
Gene Model: November 7th, 2018
76 days agocca1 circadian clock associated1:
 
GRMZM2G014902
Sangam Lal Dwivedi et al. 2024. Unlocking allelic variation in circadian clock genes to develop environmentally robust and productive crops. Planta. 259:72.     Reference: February 22nd, 2024
Gene Product: July 31st, 2016
Variation: March 18th, 2011
Gene Model: July 30th, 2016
76 days agotps2 terpene synthase2:
 
GRMZM2G046615
Jamie M Waterman et al. 2024. High-resolution kinetics of herbivore-induced plant volatile transfer reveal clocked response patterns in neighboring plants. Elife. 12:RP89855.     Reference: February 22nd, 2024
Gene Product: December 6th, 2023
Variation: May 28th, 2012
Gene Model: May 28th, 2012
76 days agonas4 nicotianamine synthase 4:
 
GRMZM2G439195
Quaggiotti, S et al. 2024. Strigolactone roles in maize tolerance to low nitrogen involve shifts in acquisition and partitioning of protein, sulfur, and iron Plant Soil. :dpi: 10.1007/s11104-024-06561-6.     Reference: February 22nd, 2024
Gene Product: July 26th, 2013
Gene Model: July 26th, 2013
76 days agonas6 nicotianamine synthase6:
 
GRMZM2G704488
Quaggiotti, S et al. 2024. Strigolactone roles in maize tolerance to low nitrogen involve shifts in acquisition and partitioning of protein, sulfur, and iron Plant Soil. :dpi: 10.1007/s11104-024-06561-6.     Reference: February 22nd, 2024
Gene Product: July 26th, 2013
Gene Model: July 26th, 2013
76 days agocyp19 cytochrome P-450 19:
 
GRMZM2G102079
Jamie M Waterman et al. 2024. High-resolution kinetics of herbivore-induced plant volatile transfer reveal clocked response patterns in neighboring plants. Elife. 12:RP89855.     Reference: February 22nd, 2024
Gene Product: September 26th, 2016
Gene Model: September 26th, 2016
76 days agonpf2 nitrate transporter/peptide transporter family2:
 
GRMZM2G161459
Quaggiotti, S et al. 2024. Strigolactone roles in maize tolerance to low nitrogen involve shifts in acquisition and partitioning of protein, sulfur, and iron Plant Soil. :dpi: 10.1007/s11104-024-06561-6.   AT1G12110 (TAIR) Reference: February 22nd, 2024
Gene Product: September 1st, 2003
Variation: September 11th, 2017
Gene Model: September 11th, 2017
76 days agosfp4 sulfate transporter4:
 
GRMZM2G154211
Quaggiotti, S et al. 2024. Strigolactone roles in maize tolerance to low nitrogen involve shifts in acquisition and partitioning of protein, sulfur, and iron Plant Soil. :dpi: 10.1007/s11104-024-06561-6.     Reference: February 22nd, 2024
Gene Product: May 8th, 2020
Gene Model: November 13th, 2017
76 days agosfp6 sulfate transporter6:
 
GRMZM2G158013
Quaggiotti, S et al. 2024. Strigolactone roles in maize tolerance to low nitrogen involve shifts in acquisition and partitioning of protein, sulfur, and iron Plant Soil. :dpi: 10.1007/s11104-024-06561-6.     Reference: February 22nd, 2024
Gene Product: May 8th, 2020
Gene Model: November 13th, 2017
76 days agonpf5 nitrate transporter/peptide transporter family5:
 
GRMZM2G179294
Quaggiotti, S et al. 2024. Strigolactone roles in maize tolerance to low nitrogen involve shifts in acquisition and partitioning of protein, sulfur, and iron Plant Soil. :dpi: 10.1007/s11104-024-06561-6.     Reference: February 22nd, 2024
Gene Product: September 1st, 2003
Gene Model: May 10th, 2018
76 days agonrt7 nitrate transport7:
 
GRMZM5G811593
Quaggiotti, S et al. 2024. Strigolactone roles in maize tolerance to low nitrogen involve shifts in acquisition and partitioning of protein, sulfur, and iron Plant Soil. :dpi: 10.1007/s11104-024-06561-6.     Reference: February 22nd, 2024
Gene Product: September 1st, 2003
Gene Model: March 2nd, 2021
76 days agoaaap10 amino acid/auxin permease10:
 
GRMZM2G114523
Quaggiotti, S et al. 2024. Strigolactone roles in maize tolerance to low nitrogen involve shifts in acquisition and partitioning of protein, sulfur, and iron Plant Soil. :dpi: 10.1007/s11104-024-06561-6.     Reference: February 22nd, 2024
Gene Product: March 31st, 2021
Gene Model: March 30th, 2021
76 days agonas2 nicotianamine synthase2:
1.03
GRMZM2G030036
Quaggiotti, S et al. 2024. Strigolactone roles in maize tolerance to low nitrogen involve shifts in acquisition and partitioning of protein, sulfur, and iron Plant Soil. :dpi: 10.1007/s11104-024-06561-6.     Reference: February 22nd, 2024
Gene Product: July 26th, 2013
Variation: March 19th, 2008
Gene Model: July 26th, 2013
77 days agophyC2 phytochromeC2:
5.01
GRMZM2G129889
Wang, P-X et al. 2024. Fine-Tuning Quantitative Trait Loci Identified in Immortalized F2 Population Are Essential for Genomic Prediction of Hybrid Performance in Maize Agriculture. 14:340.     Reference: February 21st, 2024
Gene Product: June 30th, 2009
Variation: August 26th, 2021
Gene Model: August 26th, 2021
77 days agoca5p16 CCAAT-HAP5-transcription factor 516:
7.03
GRMZM2G078691
Wang, P-X et al. 2024. Fine-Tuning Quantitative Trait Loci Identified in Immortalized F2 Population Are Essential for Genomic Prediction of Hybrid Performance in Maize Agriculture. 14:340.     Reference: February 21st, 2024
Gene Product: August 9th, 2016
Gene Model: August 8th, 2016
77 days agobv1 brevis plant1:
5.04 - 5.05
GRMZM2G366698
Wang, P-X et al. 2024. Fine-Tuning Quantitative Trait Loci Identified in Immortalized F2 Population Are Essential for Genomic Prediction of Hybrid Performance in Maize Agriculture. 14:340.   LOC_Os02g27620 (MSU/TIGR)
Os02g0477700 (Gramene)
Reference: February 21st, 2024
Gene Product: January 16th, 2016
Variation: January 16th, 2016
Gene Model: January 16th, 2016
77 days agote1 terminal ear1:
3.05
   Wang, P-X et al. 2024. Fine-Tuning Quantitative Trait Loci Identified in Immortalized F2 Population Are Essential for Genomic Prediction of Hybrid Performance in Maize Agriculture. 14:340.     Reference: February 21st, 2024
Gene Product: September 1st, 2003
Variation: October 25th, 2021
77 days agovp8 viviparous8:
1.11
   Wang, P-X et al. 2024. Fine-Tuning Quantitative Trait Loci Identified in Immortalized F2 Population Are Essential for Genomic Prediction of Hybrid Performance in Maize Agriculture. 14:340.   AT3G54720 (TAIR) Reference: February 21st, 2024
Gene Product: November 29th, 2012
Variation: July 6th, 2022
77 days agocol3 C2C2-CO-like-transcription factor 3:
 
   Wang, P-X et al. 2024. Fine-Tuning Quantitative Trait Loci Identified in Immortalized F2 Population Are Essential for Genomic Prediction of Hybrid Performance in Maize Agriculture. 14:340.     Reference: February 21st, 2024
Gene Product: June 18th, 2018
77 days agophyB1 phytochromeB1:
1.03
   Wang, P-X et al. 2024. Fine-Tuning Quantitative Trait Loci Identified in Immortalized F2 Population Are Essential for Genomic Prediction of Hybrid Performance in Maize Agriculture. 14:340.     Reference: February 21st, 2024
Gene Product: October 24th, 2007
Variation: May 19th, 2020
77 days agozfl2 Zea floricaula leafy2:
2.02
   Wang, P-X et al. 2024. Fine-Tuning Quantitative Trait Loci Identified in Immortalized F2 Population Are Essential for Genomic Prediction of Hybrid Performance in Maize Agriculture. 14:340.     Reference: February 21st, 2024
Variation: October 9th, 2014
77 days agopsaA (cp) psaA:
 
   Elbasan, F et al. 2024. Hesperidin and chlorogenic acid mitigate arsenic-induced oxidative stress via redox regulation, photosystems-related gene expression, and antioxidant efficiency in the chloroplasts of Zea mays Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108445.     Reference: February 21st, 2024
Gene Product: September 1st, 2003
77 days agopsaB (cp) psaB:
 
   Elbasan, F et al. 2024. Hesperidin and chlorogenic acid mitigate arsenic-induced oxidative stress via redox regulation, photosystems-related gene expression, and antioxidant efficiency in the chloroplasts of Zea mays Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108445.     Reference: February 21st, 2024
Gene Product: September 1st, 2003
77 days agomads1 MADS1:
9.07
   Wang, P-X et al. 2024. Fine-Tuning Quantitative Trait Loci Identified in Immortalized F2 Population Are Essential for Genomic Prediction of Hybrid Performance in Maize Agriculture. 14:340.     Reference: February 21st, 2024
Gene Product: September 10th, 2021
Variation: April 15th, 2008
77 days agopsbD (cp)  :
 
   Elbasan, F et al. 2024. Hesperidin and chlorogenic acid mitigate arsenic-induced oxidative stress via redox regulation, photosystems-related gene expression, and antioxidant efficiency in the chloroplasts of Zea mays Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108445.     Reference: February 21st, 2024
Gene Product: September 1st, 2003
77 days agopsbA (cp)  :
 
   Elbasan, F et al. 2024. Hesperidin and chlorogenic acid mitigate arsenic-induced oxidative stress via redox regulation, photosystems-related gene expression, and antioxidant efficiency in the chloroplasts of Zea mays Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108445.     Reference: February 21st, 2024
Gene Product: September 1st, 2003
77 days agosbp12 SBP-transcription factor 12:
5.04
GRMZM2G156621
Wang, P-X et al. 2024. Fine-Tuning Quantitative Trait Loci Identified in Immortalized F2 Population Are Essential for Genomic Prediction of Hybrid Performance in Maize Agriculture. 14:340.     Reference: February 21st, 2024
Gene Product: July 5th, 2019
Gene Model: June 27th, 2018
77 days agomads3 MADS3:
7.00
GRMZM2G072582
Wang, P-X et al. 2024. Fine-Tuning Quantitative Trait Loci Identified in Immortalized F2 Population Are Essential for Genomic Prediction of Hybrid Performance in Maize Agriculture. 14:340.     Reference: February 21st, 2024
Variation: July 31st, 2015
Gene Model: July 31st, 2015
77 days agoga20ox3 gibberellin 20-oxidase3:
 
GRMZM2G368411
Wang, P-X et al. 2024. Fine-Tuning Quantitative Trait Loci Identified in Immortalized F2 Population Are Essential for Genomic Prediction of Hybrid Performance in Maize Agriculture. 14:340.     Reference: February 21st, 2024
Gene Product: October 28th, 2014
Variation: July 10th, 2020
Gene Model: October 29th, 2014
77 days agonod1 narrow odd dwarf1:
 
GRMZM2G027821
Wang, P-X et al. 2024. Fine-Tuning Quantitative Trait Loci Identified in Immortalized F2 Population Are Essential for Genomic Prediction of Hybrid Performance in Maize Agriculture. 14:340.   AT4G35920 (TAIR)
LOC_Os03g06120 (MSU/TIGR)
Reference: February 21st, 2024
Gene Product: August 10th, 2022
Variation: September 8th, 2018
Gene Model: March 4th, 2017
77 days agordph1 reducing plant height1:
 
GRMZM2G114190
Wang, P-X et al. 2024. Fine-Tuning Quantitative Trait Loci Identified in Immortalized F2 Population Are Essential for Genomic Prediction of Hybrid Performance in Maize Agriculture. 14:340.     Reference: February 21st, 2024
Gene Product: November 7th, 2019
Gene Model: November 7th, 2019
77 days agoprrtf1 pseudo-response regulator transcription factor1:
 
GRMZM2G095727
Wang, P-X et al. 2024. Fine-Tuning Quantitative Trait Loci Identified in Immortalized F2 Population Are Essential for Genomic Prediction of Hybrid Performance in Maize Agriculture. 14:340.   AT5G02810 (TAIR) Reference: February 21st, 2024
Gene Product: June 18th, 2018
Gene Model: April 10th, 2021
77 days agomads67 MADS-transcription factor 67:
7.04
GRMZM2G147716
Wang, P-X et al. 2024. Fine-Tuning Quantitative Trait Loci Identified in Immortalized F2 Population Are Essential for Genomic Prediction of Hybrid Performance in Maize Agriculture. 14:340.     Reference: February 21st, 2024
Gene Product: September 10th, 2021
Gene Model: February 7th, 2019
77 days agophyC1 phytochromeC1:
1.10
   Wang, P-X et al. 2024. Fine-Tuning Quantitative Trait Loci Identified in Immortalized F2 Population Are Essential for Genomic Prediction of Hybrid Performance in Maize Agriculture. 14:340.     Reference: February 21st, 2024
Gene Product: June 30th, 2009
Variation: June 30th, 2009
78 days agoplt15 phospholipid transfer protein15:
 
   Shweta Meshram et al. 2024. Investigation on comparative transcriptome profiling of resistant and susceptible non-CMS maize genotypes during Bipolaris maydis race O infection Heliyon. :doi: 10.1016/j.heliyon.2024.e26538.     Reference: February 20th, 2024
Gene Product: September 1st, 2003
78 days agopza00131  :
1.07
   Shweta Meshram et al. 2024. Investigation on comparative transcriptome profiling of resistant and susceptible non-CMS maize genotypes during Bipolaris maydis race O infection Heliyon. :doi: 10.1016/j.heliyon.2024.e26538.     Reference: February 20th, 2024
Variation: September 25th, 2007
78 days agoarftf4 ARF-transcription factor 4:
 
   Shweta Meshram et al. 2024. Investigation on comparative transcriptome profiling of resistant and susceptible non-CMS maize genotypes during Bipolaris maydis race O infection Heliyon. :doi: 10.1016/j.heliyon.2024.e26538.     Reference: February 20th, 2024
Gene Product: January 29th, 2022
78 days agowrky83 WRKY-transcription factor 83:
 
   Shweta Meshram et al. 2024. Investigation on comparative transcriptome profiling of resistant and susceptible non-CMS maize genotypes during Bipolaris maydis race O infection Heliyon. :doi: 10.1016/j.heliyon.2024.e26538.     Reference: February 20th, 2024
Variation: July 2nd, 2021
78 days agocyp16 cytochrome P450 16:
 
   Shweta Meshram et al. 2024. Investigation on comparative transcriptome profiling of resistant and susceptible non-CMS maize genotypes during Bipolaris maydis race O infection Heliyon. :doi: 10.1016/j.heliyon.2024.e26538.     Reference: February 20th, 2024
Gene Product: September 26th, 2016
Variation: February 15th, 2014
78 days agocal5 calmodulin5:
 
GRMZM2G155822
Shweta Meshram et al. 2024. Investigation on comparative transcriptome profiling of resistant and susceptible non-CMS maize genotypes during Bipolaris maydis race O infection Heliyon. :doi: 10.1016/j.heliyon.2024.e26538.     Reference: February 20th, 2024
Gene Product: September 1st, 2003
Gene Model: December 19th, 2019
78 days agoglp2 germin-like protein2:
 
GRMZM2G045809
Shweta Meshram et al. 2024. Investigation on comparative transcriptome profiling of resistant and susceptible non-CMS maize genotypes during Bipolaris maydis race O infection Heliyon. :doi: 10.1016/j.heliyon.2024.e26538.     Reference: February 20th, 2024
Gene Product: December 24th, 2015
Gene Model: September 11th, 2020
78 days agotps13 terpene synthase13:
 
GRMZM2G028306
Shweta Meshram et al. 2024. Investigation on comparative transcriptome profiling of resistant and susceptible non-CMS maize genotypes during Bipolaris maydis race O infection Heliyon. :doi: 10.1016/j.heliyon.2024.e26538.     Reference: February 20th, 2024
Gene Product: September 3rd, 2008
Gene Model: October 27th, 2020
78 days agogeb3 glucan endo-1,3-beta-glucosidase homolog3:
 
GRMZM2G061403
Shweta Meshram et al. 2024. Investigation on comparative transcriptome profiling of resistant and susceptible non-CMS maize genotypes during Bipolaris maydis race O infection Heliyon. :doi: 10.1016/j.heliyon.2024.e26538.     Reference: February 20th, 2024
Gene Product: September 1st, 2003
Gene Model: February 1st, 2021
78 days agoccp9 cysteine protease9:
 
GRMZM2G049882
Shweta Meshram et al. 2024. Investigation on comparative transcriptome profiling of resistant and susceptible non-CMS maize genotypes during Bipolaris maydis race O infection Heliyon. :doi: 10.1016/j.heliyon.2024.e26538.     Reference: February 20th, 2024
Gene Product: October 11th, 2021
Gene Model: October 11th, 2021
78 days agoacs2 1-aminocyclopropane-1-carboxylate synthase2:
2.02
GRMZM2G164405
Shweta Meshram et al. 2024. Investigation on comparative transcriptome profiling of resistant and susceptible non-CMS maize genotypes during Bipolaris maydis race O infection Heliyon. :doi: 10.1016/j.heliyon.2024.e26538.     Reference: February 20th, 2024
Gene Product: May 16th, 2016
Variation: May 3rd, 2007
Gene Model: January 21st, 2016
79 days agocyp46 cytochrome P450 46:
 
   Gao, JH et al. 2024. Identification of Novel QTL for Mercury Accumulation in Maize Using an Enlarged SNP Panel Genes. 15:257.     Reference: February 19th, 2024
Gene Product: December 30th, 2022
79 days agoppr230 pentatricopeptide repeat protein230:
 
   Meichen Liu et al. 2024. Genome-Wide Association Study and Prediction of Tassel Weight of Tropical Maize Germplasm in Multi-Parent Population Int J Mol Sci. 25:1756.     Reference: February 19th, 2024
Gene Product: December 27th, 2016
79 days agodnaJ10 DnaJ/Hsp40 10:
 
   Meichen Liu et al. 2024. Genome-Wide Association Study and Prediction of Tassel Weight of Tropical Maize Germplasm in Multi-Parent Population Int J Mol Sci. 25:1756.     Reference: February 19th, 2024
Gene Product: September 1st, 2003
79 days agocel26 cellulase26:
4.07
GRMZM2G125991
Gao, JH et al. 2024. Identification of Novel QTL for Mercury Accumulation in Maize Using an Enlarged SNP Panel Genes. 15:257.     Reference: February 19th, 2024
Gene Product: March 20th, 2023
Gene Model: May 23rd, 2021
79 days agoca5p10 CCAAT-HAP5-transcription factor 510:
 
   Gao, JH et al. 2024. Identification of Novel QTL for Mercury Accumulation in Maize Using an Enlarged SNP Panel Genes. 15:257.     Reference: February 19th, 2024
Gene Product: August 9th, 2016
79 days agohsftf18 HSF-transcription factor 18:
 
   Roopashree Byregowda et al. 2024. Comparative regulatory network of transcripts behind radicle emergence and seedling stage of maize (Zea mays L.). Heliyon. 10:e25683.     Reference: February 19th, 2024
Gene Product: May 15th, 2020
79 days agothx22 Trihelix-transcription factor 22:
 
   Roopashree Byregowda et al. 2024. Comparative regulatory network of transcripts behind radicle emergence and seedling stage of maize (Zea mays L.). Heliyon. 10:e25683.     Reference: February 19th, 2024
Gene Product: November 9th, 2021
79 days agowrky79 WRKY-transcription factor 79:
 
GRMZM2G061408
Roopashree Byregowda et al. 2024. Comparative regulatory network of transcripts behind radicle emergence and seedling stage of maize (Zea mays L.). Heliyon. 10:e25683.     Reference: February 19th, 2024
Gene Product: July 24th, 2017
Gene Model: July 21st, 2020
79 days agobhlh130 bHLH-transcription factor 130:
 
   Roopashree Byregowda et al. 2024. Comparative regulatory network of transcripts behind radicle emergence and seedling stage of maize (Zea mays L.). Heliyon. 10:e25683.   AT3G26744 (TAIR) Reference: February 19th, 2024
Gene Product: September 14th, 2016
79 days agobzip49 bZIP-transcription factor 49:
 
   Roopashree Byregowda et al. 2024. Comparative regulatory network of transcripts behind radicle emergence and seedling stage of maize (Zea mays L.). Heliyon. 10:e25683.     Reference: February 19th, 2024
Variation: April 8th, 2021
79 days agoctb1 chitinase B1:
10.04
GRMZM2G005633
Gao, JH et al. 2024. Identification of Novel QTL for Mercury Accumulation in Maize Using an Enlarged SNP Panel Genes. 15:257.     Reference: February 19th, 2024
Gene Product: May 31st, 2021
Variation: September 1st, 2003
Gene Model: October 21st, 2018
79 days agomybr68 MYB-related-transcription factor 68:
10.04 - 10.05
GRMZM2G410083
Roopashree Byregowda et al. 2024. Comparative regulatory network of transcripts behind radicle emergence and seedling stage of maize (Zea mays L.). Heliyon. 10:e25683.     Reference: February 19th, 2024
Variation: September 1st, 2003
Gene Model: January 18th, 2018
79 days agogrftf8 GRF-transcription factor 8:
2.02
GRMZM2G041223
Roopashree Byregowda et al. 2024. Comparative regulatory network of transcripts behind radicle emergence and seedling stage of maize (Zea mays L.). Heliyon. 10:e25683.     Reference: February 19th, 2024
Variation: September 1st, 2003
Gene Model: February 22nd, 2018
79 days agohk6 histidine kinase6:
 
GRMZM2G125943
Gao, JH et al. 2024. Identification of Novel QTL for Mercury Accumulation in Maize Using an Enlarged SNP Panel Genes. 15:257.     Reference: February 19th, 2024
Gene Product: May 20th, 2016
Gene Model: May 20th, 2016
79 days agohak4 high-affinity potassium transporter4:
 
GRMZM2G425999
Meichen Liu et al. 2024. Genome-Wide Association Study and Prediction of Tassel Weight of Tropical Maize Germplasm in Multi-Parent Population Int J Mol Sci. 25:1756.     Reference: February 19th, 2024
Gene Product: March 12th, 2020
Gene Model: December 10th, 2019
79 days agohsftf30 HSF-transcription factor 30:
 
   Roopashree Byregowda et al. 2024. Comparative regulatory network of transcripts behind radicle emergence and seedling stage of maize (Zea mays L.). Heliyon. 10:e25683.     Reference: February 19th, 2024
Gene Product: May 15th, 2020
79 days agobhlh199 bHLH-transcription factor 199:
 
GRMZM2G137426
Roopashree Byregowda et al. 2024. Comparative regulatory network of transcripts behind radicle emergence and seedling stage of maize (Zea mays L.). Heliyon. 10:e25683.     Reference: February 19th, 2024
Gene Product: September 14th, 2016
Gene Model: July 2nd, 2021
79 days agopsei3 cystatin3:
6.06
GRMZM2G440968
Gao, JH et al. 2024. Identification of Novel QTL for Mercury Accumulation in Maize Using an Enlarged SNP Panel Genes. 15:257.     Reference: February 19th, 2024
Gene Product: April 21st, 2008
Variation: February 24th, 2009
Gene Model: July 28th, 2016
81 days agob1 colored plant1:
2.03
GRMZM2G172795
Hövel, I et al. 2024. RNA-directed DNA methylation mutants reduce histone at the paramutated maize booster1 enhancer. Plant Physiol. doi: 10.1093/plphys/kiae072     Reference: February 17th, 2024
Gene Product: October 13th, 2010
Variation: February 14th, 2013
Gene Model: September 22nd, 2011
81 days agonrpd2/e2 nuclear RNA polymerase D2/E2:
2.02
GRMZM2G054225
Hövel, I et al. 2024. RNA-directed DNA methylation mutants reduce histone at the paramutated maize booster1 enhancer. Plant Physiol. doi: 10.1093/plphys/kiae072     Reference: February 17th, 2024
Gene Product: November 9th, 2012
Variation: November 3rd, 2012
Gene Model: November 9th, 2012
81 days agose1 sugary-enhancer1:
2.10 - 2.10
AC217415.3_FG004
Shah Mohammad Usman et al. 2024. Unveiling the sweetness: evaluating yield and quality attributes of early generation sweet corn (Zea mays subsp. sachharata) inbred lines through morphological, biochemical and marker-based approaches Mol Biol Rep. 51:307.     Reference: February 17th, 2024
Gene Product: September 24th, 2019
Variation: May 4th, 2015
Gene Model: May 2nd, 2015
81 days agomop1 mediator of paramutation1:
2.04
GRMZM2G042443
Hövel, I et al. 2024. RNA-directed DNA methylation mutants reduce histone at the paramutated maize booster1 enhancer. Plant Physiol. doi: 10.1093/plphys/kiae072     Reference: February 17th, 2024
Gene Product: August 8th, 2006
Variation: August 8th, 2006
Gene Model: April 24th, 2013
81 days agormr6 required to maintain repression6:
1.06
GRMZM2G007681
Hövel, I et al. 2024. RNA-directed DNA methylation mutants reduce histone at the paramutated maize booster1 enhancer. Plant Physiol. doi: 10.1093/plphys/kiae072     Reference: February 17th, 2024
Gene Product: March 27th, 2013
Variation: March 28th, 2013
Gene Model: March 27th, 2013
82 days agomis12a minichromosome instability12a:
10.07
GRMZM2G173660
Li, XL et al. 2024. Heat stress at the bicellular stage inhibits sperm cell development and transport into pollen tubes Plant Physiol. :doi: 10.1093/plphys/kiae087.   AT5G35520 (TAIR)
LOC_Os02g40680 (MSU/TIGR)
Os02G0620100 (Gramene)
Reference: February 16th, 2024
Gene Product: December 24th, 2015
Variation: October 16th, 2010
Gene Model: December 24th, 2015
82 days agomtl3 metallothionein3:
4.05
GRMZM2G099340
Dowd, PF et al. 2023. Potential role of a maize metallothionein gene in pest resistance Plant Gene. 34:100409.     Reference: February 16th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: June 1st, 2017
82 days agomdr1 maternal derepression of R1:
4.09 - 4.09
GRMZM2G422464
Zeng, YB et al. 2024. Potent pollen gene regulation by DNA glycosylases in maize bioRxiv preprint. :doi: 10.1101/2024.02.13.580204.   AT5G04560 (TAIR) Reference: February 16th, 2024
Gene Product: October 5th, 2021
Variation: October 5th, 2021
Gene Model: October 5th, 2021
82 days agocyc14 cyclin14:
1.07
GRMZM2G133413
Li, XL et al. 2024. Heat stress at the bicellular stage inhibits sperm cell development and transport into pollen tubes Plant Physiol. :doi: 10.1093/plphys/kiae087.     Reference: February 16th, 2024
Gene Product: June 26th, 2009
Variation: January 19th, 2017
Gene Model: January 19th, 2017
82 days agohsp70-4 heat shock protein70-4:
3.05
   Li, XL et al. 2024. Heat stress at the bicellular stage inhibits sperm cell development and transport into pollen tubes Plant Physiol. :doi: 10.1093/plphys/kiae087.     Reference: February 16th, 2024
Gene Product: September 1st, 2003
Variation: January 2nd, 2013
82 days agomad2 mitotic arrest deficient homolog2:
 
GRMZM2G047143
Li, XL et al. 2024. Heat stress at the bicellular stage inhibits sperm cell development and transport into pollen tubes Plant Physiol. :doi: 10.1093/plphys/kiae087.     Reference: February 16th, 2024
Gene Product: July 6th, 2020
Gene Model: July 6th, 2020
82 days agoAW216329  :
9.08
GRMZM2G055785
Li, XL et al. 2024. Heat stress at the bicellular stage inhibits sperm cell development and transport into pollen tubes Plant Physiol. :doi: 10.1093/plphys/kiae087.     Reference: February 16th, 2024
Variation: July 29th, 2004
Gene Model: February 27th, 2018
82 days agosamba1 SAMBA ortholog1:
1.05
GRMZM2G157878
Li, XL et al. 2024. Heat stress at the bicellular stage inhibits sperm cell development and transport into pollen tubes Plant Physiol. :doi: 10.1093/plphys/kiae087.   AT1G32310 (TAIR) Reference: February 16th, 2024
Gene Product: November 18th, 2021
Variation: November 18th, 2021
Gene Model: February 8th, 2020
82 days agolimtf11 LIM-transcription factor 11:
 
GRMZM2G017845
Li, XL et al. 2024. Heat stress at the bicellular stage inhibits sperm cell development and transport into pollen tubes Plant Physiol. :doi: 10.1093/plphys/kiae087.     Reference: February 16th, 2024
Gene Product: June 24th, 2019
Variation: June 24th, 2019
Gene Model: October 10th, 2012
82 days agocyc9 cyclin9:
 
GRMZM2G017081
Li, XL et al. 2024. Heat stress at the bicellular stage inhibits sperm cell development and transport into pollen tubes Plant Physiol. :doi: 10.1093/plphys/kiae087.     Reference: February 16th, 2024
Gene Product: June 26th, 2009
Variation: June 6th, 2016
Gene Model: June 6th, 2016
82 days agohsp11 heat shock protein11:
 
GRMZM2G306679
Li, XL et al. 2024. Heat stress at the bicellular stage inhibits sperm cell development and transport into pollen tubes Plant Physiol. :doi: 10.1093/plphys/kiae087.     Reference: February 16th, 2024
Gene Product: January 15th, 2019
Gene Model: January 14th, 2019
82 days agohsp70-3 heat shock protein70-3:
 
GRMZM2G145275
Li, XL et al. 2024. Heat stress at the bicellular stage inhibits sperm cell development and transport into pollen tubes Plant Physiol. :doi: 10.1093/plphys/kiae087.     Reference: February 16th, 2024
Gene Product: September 1st, 2003
Gene Model: December 18th, 2020
82 days agohsp70-6 heat shock protein70-6:
 
GRMZM2G428391
Li, XL et al. 2024. Heat stress at the bicellular stage inhibits sperm cell development and transport into pollen tubes Plant Physiol. :doi: 10.1093/plphys/kiae087.     Reference: February 16th, 2024
Gene Product: September 1st, 2003
Gene Model: December 18th, 2020
82 days agodng102 DNA glycosylase102:
 
GRMZM2G123587
Zeng, YB et al. 2024. Potent pollen gene regulation by DNA glycosylases in maize bioRxiv preprint. :doi: 10.1101/2024.02.13.580204.     Reference: February 16th, 2024
Gene Product: October 5th, 2021
Variation: October 5th, 2021
Gene Model: May 15th, 2021
82 days agocdc5 cell division control protein homolog5:
 
GRMZM2G068193
Li, XL et al. 2024. Heat stress at the bicellular stage inhibits sperm cell development and transport into pollen tubes Plant Physiol. :doi: 10.1093/plphys/kiae087.     Reference: February 16th, 2024
Gene Product: October 19th, 2022
Gene Model: March 24th, 2022
82 days agoamt1 ammonium transporter1:
10.04
GRMZM2G175140
Shambhu Krishan Lal et al. 2024. Recent Advancements in Nitrogen Use Efficiency in Crop Plants Achieved by Genomics and Targeted Genetic Engineering Approaches Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01439-4.     Reference: February 16th, 2024
Gene Product: July 8th, 2013
Variation: September 25th, 2007
Gene Model: September 11th, 2021
83 days agosr2 striate leaves2:
10.07
   Brady, MJ et al. 2024. The maize striate leaves2 ( sr2) gene encodes a conserved DUF3732 domain and is homologous to the rice yss1 gene. Plant Direct 8:(2) e567.   AT4G33480 (TAIR)
LOC_Os04g59570 (MSU/TIGR)
Os04g0692200 (Gramene)
Reference: February 15th, 2024
Gene Product: February 15th, 2024
Variation: October 9th, 2023
85 days agoask2 aspartate kinase2:
2.06
GRMZM2G052935
Hriipulou Duo et al. 2024. Assessing sequence variation, haplotype analysis and molecular characterisation of aspartate kinase2 (ask2) gene regulating methionine biosynthesis in diverse maize inbreds. Mol Genet Genomics. 299:7.     Reference: February 13th, 2024
Gene Product: September 1st, 2003
Variation: February 6th, 2018
Gene Model: February 6th, 2018
86 days agomrpa16 multidrug resistance protein associated16:
 
   Yaling Hou et al. 2024. Integrative analysis of the transcriptome and metabolome reveals Bacillus atrophaeus WZYH01-mediated salt stress mechanism in maize (Zea mays L.) J Biotechnol. :doi: 10.1016/j.jbiotec.2024.02.004.     Reference: February 12th, 2024
Gene Product: July 11th, 2019
86 days agomam1 mRNA adenosine methylase1:
 
   Daolei Zhang et al. 2024. Epigenetic variation in maize agronomical traits for breeding and trait improvement. J Genet Genomics.   AT4G10760 (TAIR) Reference: February 12th, 2024
Gene Product: November 24th, 2023
Variation: November 24th, 2023
86 days agomet6 DNA methyl transferase6:
8.05
   Daolei Zhang et al. 2024. Epigenetic variation in maize agronomical traits for breeding and trait improvement. J Genet Genomics.     Reference: February 12th, 2024
Gene Product: April 6th, 2018
Variation: October 25th, 2020
86 days agola1 lazy plant1:
4.03 - 4.04
GRMZM2G135019
Daolei Zhang et al. 2024. Epigenetic variation in maize agronomical traits for breeding and trait improvement. J Genet Genomics.     Reference: February 12th, 2024
Gene Product: October 9th, 2013
Variation: February 26th, 2015
Gene Model: October 8th, 2013
86 days agorgd1 ragged seedling1:
6.01 - 6.01
   Daolei Zhang et al. 2024. Epigenetic variation in maize agronomical traits for breeding and trait improvement. J Genet Genomics.   AT5G23570 (TAIR) Reference: February 12th, 2024
Gene Product: December 18th, 2014
Variation: June 8th, 2015
86 days agorpd3 RPD3 histone deacetylase homolog:
4.09
GRMZM2G172883
Daolei Zhang et al. 2024. Epigenetic variation in maize agronomical traits for breeding and trait improvement. J Genet Genomics.     Reference: February 12th, 2024
Gene Product: February 12th, 2020
Variation: November 11th, 2014
Gene Model: November 6th, 2014
86 days agoexpb2 beta expansin2:
1.05
GRMZM2G021621
Daolei Zhang et al. 2024. Epigenetic variation in maize agronomical traits for breeding and trait improvement. J Genet Genomics.     Reference: February 12th, 2024
Gene Product: March 12th, 2008
Variation: December 28th, 2016
Gene Model: December 28th, 2016
86 days agoexpa1 alpha expansin1:
3.06
   Daolei Zhang et al. 2024. Epigenetic variation in maize agronomical traits for breeding and trait improvement. J Genet Genomics.     Reference: February 12th, 2024
Gene Product: March 12th, 2008
Variation: September 1st, 2003
86 days agorbap1 WD-repeat protein RBAP1:
3.07
GRMZM2G316113
Daolei Zhang et al. 2024. Epigenetic variation in maize agronomical traits for breeding and trait improvement. J Genet Genomics.     Reference: February 12th, 2024
Gene Product: September 1st, 2003
Variation: December 29th, 2010
Gene Model: December 10th, 2012
86 days agoact7 actin7:
1.11
GRMZM2G053299
Daolei Zhang et al. 2024. Epigenetic variation in maize agronomical traits for breeding and trait improvement. J Genet Genomics.     Reference: February 12th, 2024
Gene Product: September 1st, 2003
Variation: January 25th, 2017
Gene Model: January 25th, 2017
86 days agomez1 enhancer of zeste1:
6.01
   Daolei Zhang et al. 2024. Epigenetic variation in maize agronomical traits for breeding and trait improvement. J Genet Genomics.     Reference: February 12th, 2024
Gene Product: June 30th, 2017
Variation: July 3rd, 2015
86 days agomsh1 male sterile protein homolog1:
4.08
GRMZM2G036217
Daolei Zhang et al. 2024. Epigenetic variation in maize agronomical traits for breeding and trait improvement. J Genet Genomics.     Reference: February 12th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: April 4th, 2015
86 days agohda102 histone deacetylase:
2.04
GRMZM2G119703
Daolei Zhang et al. 2024. Epigenetic variation in maize agronomical traits for breeding and trait improvement. J Genet Genomics.     Reference: February 12th, 2024
Gene Product: February 12th, 2020
Variation: May 28th, 2011
Gene Model: November 6th, 2014
86 days agohda108 histone deacetylase:
4.05
   Daolei Zhang et al. 2024. Epigenetic variation in maize agronomical traits for breeding and trait improvement. J Genet Genomics.     Reference: February 12th, 2024
Gene Product: September 1st, 2003
Variation: February 1st, 2018
86 days agosdg113 set domain gene113:
3.06
   Daolei Zhang et al. 2024. Epigenetic variation in maize agronomical traits for breeding and trait improvement. J Genet Genomics.     Reference: February 12th, 2024
Gene Product: June 30th, 2017
Variation: September 1st, 2003
86 days agochr106 chromatin complex subunit A 106:
1.10
GRMZM2G071025
Daolei Zhang et al. 2024. Epigenetic variation in maize agronomical traits for breeding and trait improvement. J Genet Genomics.     Reference: February 12th, 2024
Variation: June 9th, 2018
Gene Model: December 22nd, 2014
86 days agoros1 repressor of silencing1:
 
GRMZM2G141792
Daolei Zhang et al. 2024. Epigenetic variation in maize agronomical traits for breeding and trait improvement. J Genet Genomics.     Reference: February 12th, 2024
Gene Product: March 10th, 2022
Gene Model: October 16th, 2017
86 days agotac1 tiller angle control1:
 
GRMZM2G447987
Daolei Zhang et al. 2024. Epigenetic variation in maize agronomical traits for breeding and trait improvement. J Genet Genomics.   LOC_Os09g35980 (MSU/TIGR) Reference: February 12th, 2024
Variation: November 13th, 2017
Gene Model: November 11th, 2017
86 days agonip1c NOD26-like membrane intrinsic protein1c:
 
AC234180.1_FG004
Yaling Hou et al. 2024. Integrative analysis of the transcriptome and metabolome reveals Bacillus atrophaeus WZYH01-mediated salt stress mechanism in maize (Zea mays L.) J Biotechnol. :doi: 10.1016/j.jbiotec.2024.02.004.     Reference: February 12th, 2024
Gene Product: January 27th, 2022
Gene Model: January 27th, 2022
86 days agomet4 DNA methyl transferase4:
8.05
GRMZM2G157589
Daolei Zhang et al. 2024. Epigenetic variation in maize agronomical traits for breeding and trait improvement. J Genet Genomics.     Reference: February 12th, 2024
Gene Product: April 6th, 2018
Variation: February 10th, 2010
Gene Model: December 22nd, 2014
86 days agogif1 growth-regulating-factor-interacting factor1:
1.10
GRMZM2G180246
Daolei Zhang et al. 2024. Epigenetic variation in maize agronomical traits for breeding and trait improvement. J Genet Genomics.   AT5G28640 (TAIR)
LOC_Os03g52320 (MSU/TIGR)
Reference: February 12th, 2024
Gene Product: July 6th, 2015
Variation: February 6th, 2018
Gene Model: July 6th, 2015
87 days agopco127462a  :
1.06
GRMZM2G096585
Hueros, G et al. 1998. Planta 205:121-131     Reference: February 11th, 2024
Gene Product: February 10th, 2024
Gene Model: February 10th, 2020
88 days agoglp3 germin-like protein3:
 
   Shiyu Liu et al. 2024. Chlorine dioxide affects metabolism of harvested sweet corn Postharv Biol Technol. 211:112834.     Reference: February 10th, 2024
Gene Product: December 24th, 2015
88 days agoglp7 germin-like protein7:
 
   Shiyu Liu et al. 2024. Chlorine dioxide affects metabolism of harvested sweet corn Postharv Biol Technol. 211:112834.     Reference: February 10th, 2024
Gene Product: December 24th, 2015
88 days agoglp18 germin-like protein18:
 
   Shiyu Liu et al. 2024. Chlorine dioxide affects metabolism of harvested sweet corn Postharv Biol Technol. 211:112834.     Reference: February 10th, 2024
Gene Product: December 24th, 2015
88 days agowakl21 wall associated kinase like21:
 
   Shiyu Liu et al. 2024. Chlorine dioxide affects metabolism of harvested sweet corn Postharv Biol Technol. 211:112834.     Reference: February 10th, 2024
Gene Product: December 7th, 2023
88 days agoGRMZM2G095333  :
 
   Yu, Y-L et al. 2012. Genome-wide analysis and environmental response profiling of the FK506-binding protein gene family in maize (Zea mays L.). Gene. 498:212-222.     Reference: February 10th, 2024
Gene Product: February 10th, 2024
88 days agoGRMZM2G153991  :
 
   Yu, Y-L et al. 2012. Genome-wide analysis and environmental response profiling of the FK506-binding protein gene family in maize (Zea mays L.). Gene. 498:212-222.     Reference: February 10th, 2024
Gene Product: February 10th, 2024
88 days agoGRMZM2G030494  :
 
   Yu, Y-L et al. 2012. Genome-wide analysis and environmental response profiling of the FK506-binding protein gene family in maize (Zea mays L.). Gene. 498:212-222.     Reference: February 10th, 2024
Gene Product: February 10th, 2024
88 days agoGRMZM2G001956  :
 
   Yu, Y-L et al. 2012. Genome-wide analysis and environmental response profiling of the FK506-binding protein gene family in maize (Zea mays L.). Gene. 498:212-222.     Reference: February 10th, 2024
Gene Product: February 10th, 2024
88 days agoGRMZM2G041060  :
 
   Yu, Y-L et al. 2012. Genome-wide analysis and environmental response profiling of the FK506-binding protein gene family in maize (Zea mays L.). Gene. 498:212-222.     Reference: February 10th, 2024
Gene Product: February 10th, 2024
88 days agoGRMZM2G488458  :
 
   Yu, Y-L et al. 2012. Genome-wide analysis and environmental response profiling of the FK506-binding protein gene family in maize (Zea mays L.). Gene. 498:212-222.     Reference: February 10th, 2024
Gene Product: February 10th, 2024
88 days agoGRMZM2G399313  :
 
   Yu, Y-L et al. 2012. Genome-wide analysis and environmental response profiling of the FK506-binding protein gene family in maize (Zea mays L.). Gene. 498:212-222.     Reference: February 10th, 2024
Gene Product: February 10th, 2024
88 days agoIDP8408  :
4.09
GRMZM2G012340
Yu, Y-L et al. 2012. Genome-wide analysis and environmental response profiling of the FK506-binding protein gene family in maize (Zea mays L.). Gene. 498:212-222.     Reference: February 10th, 2024
Gene Product: February 10th, 2024
Gene Model: May 26th, 2021
88 days agoIDP8238  :
4.10
GRMZM2G150337
Yu, Y-L et al. 2012. Genome-wide analysis and environmental response profiling of the FK506-binding protein gene family in maize (Zea mays L.). Gene. 498:212-222.     Reference: February 10th, 2024
Gene Product: February 10th, 2024
Gene Model: May 27th, 2021
88 days agoIDP8044  :
9.04
GRMZM2G117746
Yu, Y-L et al. 2012. Genome-wide analysis and environmental response profiling of the FK506-binding protein gene family in maize (Zea mays L.). Gene. 498:212-222.     Reference: February 10th, 2024
Gene Product: February 10th, 2024
Gene Model: July 16th, 2021
88 days agotps23 terpene synthase23:
10.03
GRMZM2G127336
P Lakshmi Soujanya et al. 2024. Host Plant Resistance to Insect Pests in Maize :Pp 141–168. n: Kumar, S., Furlong, M. (eds) Plant Resistance to Insects in Major Field Crops. Springer, Singapore     Reference: February 10th, 2024
Gene Product: July 21st, 2008
Variation: November 21st, 2017
Gene Model: August 22nd, 2012
88 days agophi1 phosphohexose isomerase1:
1.11 - 1.11
GRMZM2G065083
Shiyu Liu et al. 2024. Chlorine dioxide affects metabolism of harvested sweet corn Postharv Biol Technol. 211:112834.     Reference: February 10th, 2024
Gene Product: September 1st, 2003
Variation: October 1st, 2014
Gene Model: August 25th, 2014
88 days agocsu554a(rnh)  :
1.09
GRMZM2G057374
Yu, Y-L et al. 2012. Genome-wide analysis and environmental response profiling of the FK506-binding protein gene family in maize (Zea mays L.). Gene. 498:212-222.     Reference: February 10th, 2024
Gene Product: February 10th, 2024
Gene Model: September 20th, 2017
88 days agoumc1833  :
1.07
GRMZM2G155753
Yu, Y-L et al. 2012. Genome-wide analysis and environmental response profiling of the FK506-binding protein gene family in maize (Zea mays L.). Gene. 498:212-222.     Reference: February 10th, 2024
Gene Product: February 10th, 2024
Gene Model: February 24th, 2021
88 days agospp1 sucrose-phosphatase1:
8.04
   Shiyu Liu et al. 2024. Chlorine dioxide affects metabolism of harvested sweet corn Postharv Biol Technol. 211:112834.     Reference: February 10th, 2024
Gene Product: September 1st, 2003
Variation: August 2nd, 2013
88 days agofht1 flavanone 3-hydroxylase1:
2.01 - 2.02
   Shiyu Liu et al. 2024. Chlorine dioxide affects metabolism of harvested sweet corn Postharv Biol Technol. 211:112834.     Reference: February 10th, 2024
Gene Product: June 8th, 2012
Variation: September 1st, 2003
88 days agopco126622  :
2.05
GRMZM2G133624
Yu, Y-L et al. 2012. Genome-wide analysis and environmental response profiling of the FK506-binding protein gene family in maize (Zea mays L.). Gene. 498:212-222.   AT3G21640 (TAIR) Reference: February 10th, 2024
Gene Product: February 10th, 2024
Gene Model: March 18th, 2020
88 days agopdrp1 PDK regulatory protein1:
2.07
GRMZM2G131286
Xie, JP et al. 2024. The C4 photosynthesis bifunctional enzymes, PDRPs, of maize are co-opted to cytoplasmic viral replication complexes to promote infection of a prevalent potyvirus sugarcane mosaic virus. Plant Biotechnol J. :doi: 10.1111/pbi.14304.     Reference: February 10th, 2024
Gene Product: July 28th, 2014
Gene Model: July 28th, 2014
88 days agoopr1 12-oxo-phytodienoic acid reductase1:
9.01
GRMZM2G106303
Shiyu Liu et al. 2024. Chlorine dioxide affects metabolism of harvested sweet corn Postharv Biol Technol. 211:112834.     Reference: February 10th, 2024
Gene Product: September 3rd, 2010
Variation: July 21st, 2008
Gene Model: November 27th, 2013
88 days agoopr3 12-oxo-phytodienoic acid reductase3:
 
GRMZM2G156712
Shiyu Liu et al. 2024. Chlorine dioxide affects metabolism of harvested sweet corn Postharv Biol Technol. 211:112834.     Reference: February 10th, 2024
Gene Product: September 3rd, 2010
Variation: June 29th, 2012
Gene Model: November 27th, 2013
88 days agomkk4 MAP kinase kinase4:
 
GRMZM5G878379
Sahito, JH et al. 2024. Advancements and Prospects of Genome-Wide Association Studies (GWAS) in Maize. Int J Mol Sci. 25:1918.     Reference: February 10th, 2024
Gene Product: July 10th, 2013
Gene Model: July 12th, 2013
88 days agopdrp2 PDK regulatory protein2:
 
GRMZM2G004880
Xie, JP et al. 2024. The C4 photosynthesis bifunctional enzymes, PDRPs, of maize are co-opted to cytoplasmic viral replication complexes to promote infection of a prevalent potyvirus sugarcane mosaic virus. Plant Biotechnol J. :doi: 10.1111/pbi.14304.     Reference: February 10th, 2024
Gene Product: July 28th, 2014
Gene Model: December 22nd, 2017
88 days agoinvan1 invertase alkaline neutral1:
 
GRMZM2G136139
Shiyu Liu et al. 2024. Chlorine dioxide affects metabolism of harvested sweet corn Postharv Biol Technol. 211:112834.     Reference: February 10th, 2024
Gene Product: June 12th, 2018
Gene Model: June 12th, 2018
88 days agoinvan10 invertase alkaline neutral10:
 
GRMZM2G084694
Shiyu Liu et al. 2024. Chlorine dioxide affects metabolism of harvested sweet corn Postharv Biol Technol. 211:112834.     Reference: February 10th, 2024
Gene Product: June 12th, 2018
Gene Model: June 12th, 2018
88 days agopao2 polyamine oxidase2:
 
GRMZM2G000052
Sahito, JH et al. 2024. Advancements and Prospects of Genome-Wide Association Studies (GWAS) in Maize. Int J Mol Sci. 25:1918.     Reference: February 10th, 2024
Gene Product: June 10th, 2020
Gene Model: February 3rd, 2020
88 days agoaos5 allene oxide synthesis5:
 
GRMZM2G033098
Shiyu Liu et al. 2024. Chlorine dioxide affects metabolism of harvested sweet corn Postharv Biol Technol. 211:112834.     Reference: February 10th, 2024
Gene Product: September 1st, 2003
Gene Model: March 19th, 2020
88 days agocl61634_1  :
5.06
GRMZM2G035708
Yu, Y-L et al. 2012. Genome-wide analysis and environmental response profiling of the FK506-binding protein gene family in maize (Zea mays L.). Gene. 498:212-222.     Reference: February 10th, 2024
Gene Product: February 10th, 2024
Gene Model: May 24th, 2020
88 days agoprh25 protein phosphatase homolog25:
 
AC208201.3_FG002
Shiyu Liu et al. 2024. Chlorine dioxide affects metabolism of harvested sweet corn Postharv Biol Technol. 211:112834.     Reference: February 10th, 2024
Gene Product: October 25th, 2021
Gene Model: November 18th, 2020
88 days agocl38842_-2b  :
 
GRMZM2G031204
Yu, Y-L et al. 2012. Genome-wide analysis and environmental response profiling of the FK506-binding protein gene family in maize (Zea mays L.). Gene. 498:212-222.     Reference: February 10th, 2024
Gene Product: February 10th, 2024
Gene Model: June 15th, 2021
88 days agoGRMZM2G068963  :
 
GRMZM2G068963
Yu, Y-L et al. 2012. Genome-wide analysis and environmental response profiling of the FK506-binding protein gene family in maize (Zea mays L.). Gene. 498:212-222.     Reference: February 10th, 2024
Gene Product: February 10th, 2024
Gene Model: December 31st, 2021
88 days agoprx44 peroxidase44:
 
GRMZM2G122816
Shiyu Liu et al. 2024. Chlorine dioxide affects metabolism of harvested sweet corn Postharv Biol Technol. 211:112834.     Reference: February 10th, 2024
Gene Product: September 18th, 2015
Gene Model: April 8th, 2022
88 days agopco108516  :
5.07
GRMZM2G015784
Yu, Y-L et al. 2012. Genome-wide analysis and environmental response profiling of the FK506-binding protein gene family in maize (Zea mays L.). Gene. 498:212-222.     Reference: February 10th, 2024
Gene Product: February 10th, 2024
Gene Model: May 25th, 2020
88 days agochi5 chalcone flavanone isomerase5:
5.04
GRMZM2G311919
Shiyu Liu et al. 2024. Chlorine dioxide affects metabolism of harvested sweet corn Postharv Biol Technol. 211:112834.     Reference: February 10th, 2024
Gene Product: January 26th, 2021
Gene Model: June 18th, 2018
88 days agoppi2 peptidyl-prolyl cis-trans isomerase2:
6.05
GRMZM2G035922
Yu, Y-L et al. 2012. Genome-wide analysis and environmental response profiling of the FK506-binding protein gene family in maize (Zea mays L.). Gene. 498:212-222.     Reference: February 10th, 2024
Gene Product: February 10th, 2024
Gene Model: January 1st, 2020
88 days agopco107138  :
7.03
GRMZM2G115757
Yu, Y-L et al. 2012. Genome-wide analysis and environmental response profiling of the FK506-binding protein gene family in maize (Zea mays L.). Gene. 498:212-222.     Reference: February 10th, 2024
Gene Product: February 10th, 2024
Gene Model: July 25th, 2020
88 days agocl37610_1b  :
10.04
GRMZM2G024811
Yu, Y-L et al. 2012. Genome-wide analysis and environmental response profiling of the FK506-binding protein gene family in maize (Zea mays L.). Gene. 498:212-222.     Reference: February 10th, 2024
Gene Product: February 10th, 2024
Gene Model: July 11th, 2022
88 days agoaoc1 allene oxide cyclase1:
1.04
GRMZM2G077316
Shiyu Liu et al. 2024. Chlorine dioxide affects metabolism of harvested sweet corn Postharv Biol Technol. 211:112834.     Reference: February 10th, 2024
Gene Product: November 29th, 2005
Gene Model: November 25th, 2013
88 days agoacs6 1-aminocyclopropane-1-carboxylate synthase6:
1.10
GRMZM2G054361
Shiyu Liu et al. 2024. Chlorine dioxide affects metabolism of harvested sweet corn Postharv Biol Technol. 211:112834.     Reference: February 10th, 2024
Gene Product: May 16th, 2016
Variation: August 4th, 2008
Gene Model: January 21st, 2016
88 days agopco063683  :
5.04
GRMZM2G336858
Yu, Y-L et al. 2012. Genome-wide analysis and environmental response profiling of the FK506-binding protein gene family in maize (Zea mays L.). Gene. 498:212-222.   AT3G25230 (TAIR) Reference: February 10th, 2024
Gene Product: February 10th, 2024
Gene Model: May 18th, 2020
88 days agosps2 sucrose phosphate synthase2:
3.05
GRMZM2G140107
Shiyu Liu et al. 2024. Chlorine dioxide affects metabolism of harvested sweet corn Postharv Biol Technol. 211:112834.     Reference: February 10th, 2024
Gene Product: September 1st, 2003
Variation: January 22nd, 2021
Gene Model: March 18th, 2015
88 days agocyp48 cytochrome P450 48:
3.04
GRMZM2G158342
Shiyu Liu et al. 2024. Chlorine dioxide affects metabolism of harvested sweet corn Postharv Biol Technol. 211:112834.     Reference: February 10th, 2024
Gene Product: December 30th, 2022
Gene Model: March 2nd, 2017
89 days agonc3 Na+ content3:
 
   Fang, H et al. 2024. Genetic analysis and candidate gene identification of salt tolerance-related traits in maize J Integr Agric. :doi: 10.1016/j.jia.2024.02.009.     Reference: February 9th, 2024
Gene Product: November 15th, 2017
89 days agolc1 red leaf color1:
10.06
GRMZM5G822829
Peniche-Pavia, HA et al. 2024. Backcrossing Modulates the Metabolic Profiles of Anthocyanin-Pigmented 'Vitamaize' Lines Derived from Elite Maize Lines. Plant Foods Hum Nutr.     Reference: February 9th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: October 23rd, 2018
89 days agomre11a meiotic recombination protein 11 homolog A:
 
GRMZM2G106056
Fang, H et al. 2024. Genetic analysis and candidate gene identification of salt tolerance-related traits in maize J Integr Agric. :doi: 10.1016/j.jia.2024.02.009.     Reference: February 9th, 2024
Variation: May 10th, 2017
Gene Model: January 27th, 2017
89 days agonsa1 Na+ content under saline-alkaline conditions1:
 
GRMZM2G000397
Fang, H et al. 2024. Genetic analysis and candidate gene identification of salt tolerance-related traits in maize J Integr Agric. :doi: 10.1016/j.jia.2024.02.009.     Reference: February 9th, 2024
Gene Product: January 10th, 2020
Variation: January 10th, 2020
Gene Model: January 10th, 2020
90 days agoprp20 pathogenesis-related protein20:
 
   Liu, Y et al. 2024. Importance of pre-mRNA splicing and its study tools in plants Adv Biotech. 2:4.     Reference: February 8th, 2024
Gene Product: December 12th, 2022
90 days agohcf106c high chlorophyll fluorescence106c:
10.04
   Chengxiu Wu et al. 2024. Multi-omics assists genomic prediction of maize yield with machine learning approaches Mol Breed. 44:14.     Reference: February 8th, 2024
Gene Product: September 1st, 2003
Variation: December 17th, 2012
90 days agoes3 embryo sac3:
 
GRMZM2G359064
Chengxiu Wu et al. 2024. Multi-omics assists genomic prediction of maize yield with machine learning approaches Mol Breed. 44:14.     Reference: February 8th, 2024
Gene Product: April 22nd, 2011
Gene Model: November 2nd, 2021
90 days agoumc1620  :
4.07
   Qiaolu Li et al. 2024. Strigolactones alleviate the toxicity of polystyrene nanoplastics (PS-NPs) in maize (Zea mays L.). Sci Total Environ. :doi: 10.1016/j.scitotenv.2024.170626.     Reference: February 8th, 2024
Variation: September 1st, 2003
90 days agozim16 ZIM-transcription factor 16:
 
   Qiaolu Li et al. 2024. Strigolactones alleviate the toxicity of polystyrene nanoplastics (PS-NPs) in maize (Zea mays L.). Sci Total Environ. :doi: 10.1016/j.scitotenv.2024.170626.     Reference: February 8th, 2024
Gene Product: February 24th, 2021
90 days agozim27 ZIM-transcription factor 27:
 
   Qiaolu Li et al. 2024. Strigolactones alleviate the toxicity of polystyrene nanoplastics (PS-NPs) in maize (Zea mays L.). Sci Total Environ. :doi: 10.1016/j.scitotenv.2024.170626.     Reference: February 8th, 2024
Gene Product: February 24th, 2021
90 days agorbm48 RNA binding motif protein 48:
 
GRMZM2G163247
Liu, Y et al. 2024. Importance of pre-mRNA splicing and its study tools in plants Adv Biotech. 2:4.     Reference: February 8th, 2024
Gene Product: March 7th, 2019
Variation: March 7th, 2019
Gene Model: February 15th, 2019
90 days agorgh3 rough endosperm3:
 
GRMZM2G128228
Liu, Y et al. 2024. Importance of pre-mRNA splicing and its study tools in plants Adv Biotech. 2:4.     Reference: February 8th, 2024
Gene Product: December 29th, 2011
Variation: December 29th, 2011
Gene Model: April 29th, 2013
90 days agoemp16 empty pericarp16:
 
GRMZM2G060516
Liu, Y et al. 2024. Importance of pre-mRNA splicing and its study tools in plants Adv Biotech. 2:4.     Reference: February 8th, 2024
Gene Product: December 27th, 2016
Variation: January 16th, 2016
Gene Model: January 16th, 2016
90 days agodek35 defective kernel35:
 
GRMZM2G066749
Liu, Y et al. 2024. Importance of pre-mRNA splicing and its study tools in plants Adv Biotech. 2:4.     Reference: February 8th, 2024
Gene Product: December 27th, 2016
Variation: September 7th, 2016
Gene Model: September 7th, 2016
90 days agoprh7 protein phosphatase homolog7:
 
GRMZM2G082487
Qiaolu Li et al. 2024. Strigolactones alleviate the toxicity of polystyrene nanoplastics (PS-NPs) in maize (Zea mays L.). Sci Total Environ. :doi: 10.1016/j.scitotenv.2024.170626.     Reference: February 8th, 2024
Gene Product: October 25th, 2021
Gene Model: October 18th, 2016
90 days agodek37 defective kernel37:
 
GRMZM2G021319
Liu, Y et al. 2024. Importance of pre-mRNA splicing and its study tools in plants Adv Biotech. 2:4.     Reference: February 8th, 2024
Gene Product: December 27th, 2016
Variation: January 6th, 2018
Gene Model: January 6th, 2018
90 days agonad5 (mito) NADH dehydrogenase subunit 5:
 
   Liu, Y et al. 2024. Importance of pre-mRNA splicing and its study tools in plants Adv Biotech. 2:4.     Reference: February 8th, 2024
Gene Product: September 1st, 2003
90 days agosmk9 small kernel9:
 
GRMZM2G420723
Liu, Y et al. 2024. Importance of pre-mRNA splicing and its study tools in plants Adv Biotech. 2:4.     Reference: February 8th, 2024
Gene Product: December 27th, 2016
Variation: July 30th, 2019
Gene Model: July 30th, 2019
90 days agoupl13 ubiquitin-protein ligase13:
 
GRMZM2G104920
Chachar, Z et al. 2024. Cloned genes and genetic regulation of anthocyanin biosynthesis in maize, a comparative review. Frontiers in Plant Science. 15:1310634.   AT2G32950 (TAIR) Reference: February 8th, 2024
Gene Product: March 26th, 2020
Variation: July 7th, 2023
Gene Model: March 26th, 2020
90 days agoemp32 empty pericarp32:
 
GRMZM2G089959
Liu, Y et al. 2024. Importance of pre-mRNA splicing and its study tools in plants Adv Biotech. 2:4.   At5g57250 (TAIR) Reference: February 8th, 2024
Gene Product: December 27th, 2016
Variation: September 17th, 2020
Gene Model: June 12th, 2020
90 days agoflr1 feronia-like receptor1:
 
GRMZM2G006080
Chengxiu Wu et al. 2024. Multi-omics assists genomic prediction of maize yield with machine learning approaches Mol Breed. 44:14.   AT3G51550 (TAIR) Reference: February 8th, 2024
Gene Product: July 10th, 2019
Gene Model: December 17th, 2020
90 days agoemp603 empty pericarp603:
 
GRMZM2G069078
Liu, Y et al. 2024. Importance of pre-mRNA splicing and its study tools in plants Adv Biotech. 2:4.     Reference: February 8th, 2024
Gene Product: December 27th, 2016
Variation: July 19th, 2021
Gene Model: July 19th, 2021
90 days agoppr405 pentatricopeptide repeat protein405:
7.04
GRMZM2G158452
Liu, Y et al. 2024. Importance of pre-mRNA splicing and its study tools in plants Adv Biotech. 2:4.     Reference: February 8th, 2024
Gene Product: December 27th, 2016
Variation: July 29th, 2019
Gene Model: July 29th, 2019
90 days agogols3 galactinol synthase3:
9.04
GRMZM5G872256
Chengxiu Wu et al. 2024. Multi-omics assists genomic prediction of maize yield with machine learning approaches Mol Breed. 44:14.     Reference: February 8th, 2024
Gene Product: March 1st, 2018
Variation: January 26th, 2010
Gene Model: December 24th, 2015
90 days agonad2(mtNB) NADH dehydrogenase subunit 2:
 
GRMZM5G840559
Liu, Y et al. 2024. Importance of pre-mRNA splicing and its study tools in plants Adv Biotech. 2:4.     Reference: February 8th, 2024
Gene Product: March 22nd, 2022
Gene Model: June 12th, 2020
90 days agonad4(mtNB) NADH dehydrogenase subunit 4:
 
GRMZM5G804358
Liu, Y et al. 2024. Importance of pre-mRNA splicing and its study tools in plants Adv Biotech. 2:4.     Reference: February 8th, 2024
Gene Product: September 1st, 2003
Gene Model: June 12th, 2020
90 days agonad7(mtNB) NADH dehydrogenase subunit 7:
 
   Liu, Y et al. 2024. Importance of pre-mRNA splicing and its study tools in plants Adv Biotech. 2:4.     Reference: February 8th, 2024
Gene Product: March 22nd, 2022
91 days agoGRMZM2G370928  :
 
   Jinyao Zhang et al. 2024. Involvement of reactive oxygen species in zinc-deficiency induced inhibition of crown root growth in maize plant Plant Soil. :doi: 10.1007/s11104-024-06529-6.     Reference: February 7th, 2024
Gene Product: September 18th, 2015
91 days agoelfa10 elongation factor 1-alpha10:
 
GRMZM2G343543
Jinyao Zhang et al. 2024. Involvement of reactive oxygen species in zinc-deficiency induced inhibition of crown root growth in maize plant Plant Soil. :doi: 10.1007/s11104-024-06529-6.     Reference: February 7th, 2024
Gene Product: September 1st, 2003
Variation: April 14th, 2014
Gene Model: July 27th, 2016
91 days agogst58 glutathione S-transferase58:
1.01
GRMZM2G096247
Jinyao Zhang et al. 2024. Involvement of reactive oxygen species in zinc-deficiency induced inhibition of crown root growth in maize plant Plant Soil. :doi: 10.1007/s11104-024-06529-6.     Reference: February 7th, 2024
Gene Product: September 1st, 2003
Variation: August 9th, 2010
Gene Model: April 18th, 2017
91 days agotufm1 elongation factor TU mitochondrial1:
1.12
GRMZM2G022269
Jinyao Zhang et al. 2024. Involvement of reactive oxygen species in zinc-deficiency induced inhibition of crown root growth in maize plant Plant Soil. :doi: 10.1007/s11104-024-06529-6.     Reference: February 7th, 2024
Gene Product: September 1st, 2003
Variation: February 9th, 2015
Gene Model: February 9th, 2015
91 days agoexpb8 beta expansin8:
9.04
GRMZM2G013002
Jinyao Zhang et al. 2024. Involvement of reactive oxygen species in zinc-deficiency induced inhibition of crown root growth in maize plant Plant Soil. :doi: 10.1007/s11104-024-06529-6.     Reference: February 7th, 2024
Gene Product: March 12th, 2008
Gene Model: March 2nd, 2016
91 days agoaox2 alternative oxidase2:
 
GRMZM2G125669
Jinyao Zhang et al. 2024. Involvement of reactive oxygen species in zinc-deficiency induced inhibition of crown root growth in maize plant Plant Soil. :doi: 10.1007/s11104-024-06529-6.     Reference: February 7th, 2024
Gene Product: June 15th, 2023
Variation: March 1st, 2012
Gene Model: February 17th, 2012
91 days agoptac14 plastid transcriptionally active14:
 
GRMZM5G807767
Shaoxiong Li et al. 2024. Utilizing Two Populations Derived from Tropical Maize for Genome-Wide Association Analysis of Banded Leaf and Sheath Blight Resistance Plants. 13:456.     Reference: February 7th, 2024
Gene Product: December 21st, 2022
Variation: May 21st, 2017
Gene Model: February 17th, 2015
91 days agoyuc4 Yucca4:
 
GRMZM2G141383
Fang, X et al. 2024. The WRKY transcription factor ZmWRKY92 binds to GA synthesis-related genes to regulate maize plant height Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108422.     Reference: February 7th, 2024
Gene Product: June 18th, 2018
Gene Model: June 17th, 2016
91 days agocyp23 cytochrome P-450 23:
 
GRMZM2G018612
Fang, X et al. 2024. The WRKY transcription factor ZmWRKY92 binds to GA synthesis-related genes to regulate maize plant height Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108422.     Reference: February 7th, 2024
Gene Product: December 30th, 2022
Gene Model: February 27th, 2018
91 days agoapx6 ascorbate peroxidase6:
 
GRMZM2G004211
Jinyao Zhang et al. 2024. Involvement of reactive oxygen species in zinc-deficiency induced inhibition of crown root growth in maize plant Plant Soil. :doi: 10.1007/s11104-024-06529-6.     Reference: February 7th, 2024
Gene Product: October 15th, 2020
Gene Model: October 15th, 2020
91 days agoga20ox8 gibberellin 20-oxidase8:
 
GRMZM2G002704
Fang, X et al. 2024. The WRKY transcription factor ZmWRKY92 binds to GA synthesis-related genes to regulate maize plant height Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108422.     Reference: February 7th, 2024
Gene Product: October 28th, 2014
Gene Model: May 8th, 2021
91 days agoppr435 pentatricopeptide repeat435:
 
GRMZM2G017821
Wang, Y et al. 2024. Multiple factors interact in the editing of the PPR-E+ targeted sites in maize mitochondria and plastids Plant Commun. :doi: 10.1016/j.xplc.2024.100836.     Reference: February 7th, 2024
Gene Product: December 27th, 2016
Gene Model: July 21st, 2021
91 days agosaur6 small auxin up RNA6:
 
GRMZM2G059138
Fang, X et al. 2024. The WRKY transcription factor ZmWRKY92 binds to GA synthesis-related genes to regulate maize plant height Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2024.108422.     Reference: February 7th, 2024
Gene Product: November 26th, 2021
Gene Model: November 26th, 2021
91 days agonuwa1 nuwa ortholog1:
 
GRMZM2G074599
Wang, Y et al. 2024. Multiple factors interact in the editing of the PPR-E+ targeted sites in maize mitochondria and plastids Plant Commun. :doi: 10.1016/j.xplc.2024.100836.   AT3G49240 (TAIR) Reference: February 7th, 2024
Gene Product: December 27th, 2016
Gene Model: March 4th, 2022
91 days agodyw1 dyw domain-type ppr protein1:
 
GRMZM2G073551
Wang, Y et al. 2024. Multiple factors interact in the editing of the PPR-E+ targeted sites in maize mitochondria and plastids Plant Commun. :doi: 10.1016/j.xplc.2024.100836.   AT2G15690 (TAIR) Reference: February 7th, 2024
Gene Product: December 27th, 2016
Gene Model: March 4th, 2022
91 days agoorrm1 organelle RRM protein1:
5.06
GRMZM5G899787
Wang, Y et al. 2024. Multiple factors interact in the editing of the PPR-E+ targeted sites in maize mitochondria and plastids Plant Commun. :doi: 10.1016/j.xplc.2024.100836.   AT3G20930 (TAIR) Reference: February 7th, 2024
Gene Product: April 11th, 2013
Variation: April 12th, 2013
Gene Model: April 11th, 2013
91 days agooz1 organelle zinc finger otholog1:
8.08
GRMZM2G069106
Wang, Y et al. 2024. Multiple factors interact in the editing of the PPR-E+ targeted sites in maize mitochondria and plastids Plant Commun. :doi: 10.1016/j.xplc.2024.100836.   AT5G17790 (TAIR) Reference: February 7th, 2024
Gene Product: February 7th, 2024
Gene Model: June 17th, 2022
91 days agoIDP3776  :
7.00
GRMZM2G108637
Jinyao Zhang et al. 2024. Involvement of reactive oxygen species in zinc-deficiency induced inhibition of crown root growth in maize plant Plant Soil. :doi: 10.1007/s11104-024-06529-6.     Reference: February 7th, 2024
Variation: March 31st, 2005
Gene Model: July 4th, 2021
91 days agomorf8 multiple organelle RNA editing factor8:
9.07
GRMZM2G169384
Wang, Y et al. 2024. Multiple factors interact in the editing of the PPR-E+ targeted sites in maize mitochondria and plastids Plant Commun. :doi: 10.1016/j.xplc.2024.100836.     Reference: February 7th, 2024
Variation: March 31st, 2005
Gene Model: January 24th, 2019
3 months agoidd8 indeterminate domain8:
 
   Silvia Calderone et al. 2024. Diverging cell wall strategies for drought adaptation in two maize inbreds with contrasting lodging resistance Plant Cell Environ.     Reference: February 6th, 2024
Gene Product: January 3rd, 2015
3 months agodnaJ38 DnaJ/Hsp40 38:
 
   Jiajie Wang et al. 2024. Integration of the Metabolome and Transcriptome Reveals Diurnal Variability in the Effects of Melatonin on Salt Tolerance in Maize Seedlings J Plant Growth Reg. :doi: 10.1007/s00344-023-11213-7.     Reference: February 6th, 2024
Gene Product: September 1st, 2003
3 months agopub59 plant U-box type E3 ubiquitin ligase59:
 
   Jiajie Wang et al. 2024. Integration of the Metabolome and Transcriptome Reveals Diurnal Variability in the Effects of Melatonin on Salt Tolerance in Maize Seedlings J Plant Growth Reg. :doi: 10.1007/s00344-023-11213-7.     Reference: February 6th, 2024
Gene Product: February 1st, 2024
3 months agopub83 plant U-box type E3 ubiquitin ligase83:
 
   Jiajie Wang et al. 2024. Integration of the Metabolome and Transcriptome Reveals Diurnal Variability in the Effects of Melatonin on Salt Tolerance in Maize Seedlings J Plant Growth Reg. :doi: 10.1007/s00344-023-11213-7.     Reference: February 6th, 2024
Gene Product: February 1st, 2024
3 months agocamta3 CAMTA-transcription factor 3:
3.05
GRMZM2G171600
Jiajie Wang et al. 2024. Integration of the Metabolome and Transcriptome Reveals Diurnal Variability in the Effects of Melatonin on Salt Tolerance in Maize Seedlings J Plant Growth Reg. :doi: 10.1007/s00344-023-11213-7.     Reference: February 6th, 2024
Variation: September 25th, 2007
Gene Model: August 20th, 2021
3 months agomyb89 MYB-transcription factor 89:
5.05
GRMZM2G040924
Silvia Calderone et al. 2024. Diverging cell wall strategies for drought adaptation in two maize inbreds with contrasting lodging resistance Plant Cell Environ.     Reference: February 6th, 2024
Gene Product: July 25th, 2017
Variation: September 25th, 2007
Gene Model: August 28th, 2021
3 months agogbf1 G-box binding factor1:
6.07
GRMZM2G011932
Silvia Calderone et al. 2024. Diverging cell wall strategies for drought adaptation in two maize inbreds with contrasting lodging resistance Plant Cell Environ.     Reference: February 6th, 2024
Gene Product: September 1st, 2003
Variation: December 7th, 2012
Gene Model: July 27th, 2016
3 months agoamyb2 beta amylase2:
5.03 - 5.04
GRMZM2G450125
Jiajie Wang et al. 2024. Integration of the Metabolome and Transcriptome Reveals Diurnal Variability in the Effects of Melatonin on Salt Tolerance in Maize Seedlings J Plant Growth Reg. :doi: 10.1007/s00344-023-11213-7.     Reference: February 6th, 2024
Gene Product: February 26th, 2021
Variation: September 23rd, 2013
Gene Model: July 27th, 2016
3 months agovp1 viviparous1:
3.05
   Silvia Calderone et al. 2024. Diverging cell wall strategies for drought adaptation in two maize inbreds with contrasting lodging resistance Plant Cell Environ.     Reference: February 6th, 2024
Gene Product: January 29th, 2022
Variation: August 22nd, 2013
3 months agoumc1217  :
 
GRMZM2G001375
Jiajie Wang et al. 2024. Integration of the Metabolome and Transcriptome Reveals Diurnal Variability in the Effects of Melatonin on Salt Tolerance in Maize Seedlings J Plant Growth Reg. :doi: 10.1007/s00344-023-11213-7.     Reference: February 6th, 2024
Variation: September 1st, 2003
Gene Model: April 12th, 2020
3 months agomyb31 MYB31 transcription factor31:
 
GRMZM5G892094
Silvia Calderone et al. 2024. Diverging cell wall strategies for drought adaptation in two maize inbreds with contrasting lodging resistance Plant Cell Environ.   LOC_Os09g36730 (MSU/TIGR) Reference: February 6th, 2024
Gene Product: February 16th, 2011
Variation: May 6th, 2011
Gene Model: March 2nd, 2021
3 months agoabh5 abscisic acid 8'-hydroxylase5:
 
GRMZM2G002142
Jiajie Wang et al. 2024. Integration of the Metabolome and Transcriptome Reveals Diurnal Variability in the Effects of Melatonin on Salt Tolerance in Maize Seedlings J Plant Growth Reg. :doi: 10.1007/s00344-023-11213-7.     Reference: February 6th, 2024
Gene Product: February 15th, 2013
Gene Model: February 15th, 2013
3 months agoabi19 ABI3-VP1-transcription factor 19:
 
   Silvia Calderone et al. 2024. Diverging cell wall strategies for drought adaptation in two maize inbreds with contrasting lodging resistance Plant Cell Environ.     Reference: February 6th, 2024
Gene Product: January 29th, 2022
Variation: November 27th, 2020
3 months agojmj16 JUMONJI-transcription factor 16:
 
   Jiajie Wang et al. 2024. Integration of the Metabolome and Transcriptome Reveals Diurnal Variability in the Effects of Melatonin on Salt Tolerance in Maize Seedlings J Plant Growth Reg. :doi: 10.1007/s00344-023-11213-7.     Reference: February 6th, 2024
Gene Product: April 3rd, 2019
3 months agozim23 ZIM-transcription factor 23:
 
   Jiajie Wang et al. 2024. Integration of the Metabolome and Transcriptome Reveals Diurnal Variability in the Effects of Melatonin on Salt Tolerance in Maize Seedlings J Plant Growth Reg. :doi: 10.1007/s00344-023-11213-7.     Reference: February 6th, 2024
Gene Product: February 24th, 2021
3 months agoobf1 octopine synthase binding factor1:
1.05
GRMZM2G479885
Silvia Calderone et al. 2024. Diverging cell wall strategies for drought adaptation in two maize inbreds with contrasting lodging resistance Plant Cell Environ.     Reference: February 6th, 2024
Gene Product: September 1st, 2003
Variation: June 29th, 2012
Gene Model: July 28th, 2016
3 months agomyb19 MYB-transcription factor 19:
4.06
GRMZM5G833253
Silvia Calderone et al. 2024. Diverging cell wall strategies for drought adaptation in two maize inbreds with contrasting lodging resistance Plant Cell Environ.     Reference: February 6th, 2024
Gene Product: July 25th, 2017
Variation: September 1st, 2003
Gene Model: May 30th, 2018
3 months agoipt5 isopentenyl transferase5:
5.01
AC210013.4_FG005
Jiajie Wang et al. 2024. Integration of the Metabolome and Transcriptome Reveals Diurnal Variability in the Effects of Melatonin on Salt Tolerance in Maize Seedlings J Plant Growth Reg. :doi: 10.1007/s00344-023-11213-7.     Reference: February 6th, 2024
Gene Product: March 19th, 2014
Variation: September 1st, 2003
Gene Model: March 23rd, 2017
3 months agohex7 hexokinase7:
 
GRMZM2G051806
Jiajie Wang et al. 2024. Integration of the Metabolome and Transcriptome Reveals Diurnal Variability in the Effects of Melatonin on Salt Tolerance in Maize Seedlings J Plant Growth Reg. :doi: 10.1007/s00344-023-11213-7.     Reference: February 6th, 2024
Gene Product: September 15th, 2013
Gene Model: September 15th, 2013
3 months agobbi1 bowman-birk inhibitor1:
 
GRMZM2G007928
Jiajie Wang et al. 2024. Integration of the Metabolome and Transcriptome Reveals Diurnal Variability in the Effects of Melatonin on Salt Tolerance in Maize Seedlings J Plant Growth Reg. :doi: 10.1007/s00344-023-11213-7.     Reference: February 6th, 2024
Gene Product: May 30th, 2014
Variation: May 30th, 2014
Gene Model: May 30th, 2014
3 months agoprh3 protein phosphatase homolog3:
 
GRMZM2G059453
Jiajie Wang et al. 2024. Integration of the Metabolome and Transcriptome Reveals Diurnal Variability in the Effects of Melatonin on Salt Tolerance in Maize Seedlings J Plant Growth Reg. :doi: 10.1007/s00344-023-11213-7.     Reference: February 6th, 2024
Gene Product: October 25th, 2021
Gene Model: October 18th, 2016
3 months agoprh4 protein phosphatase homolog4:
 
GRMZM2G166297
Jiajie Wang et al. 2024. Integration of the Metabolome and Transcriptome Reveals Diurnal Variability in the Effects of Melatonin on Salt Tolerance in Maize Seedlings J Plant Growth Reg. :doi: 10.1007/s00344-023-11213-7.     Reference: February 6th, 2024
Gene Product: October 25th, 2021
Gene Model: October 18th, 2016
3 months agoarm11 armadillo domain protein11:
 
GRMZM2G315431
Jiajie Wang et al. 2024. Integration of the Metabolome and Transcriptome Reveals Diurnal Variability in the Effects of Melatonin on Salt Tolerance in Maize Seedlings J Plant Growth Reg. :doi: 10.1007/s00344-023-11213-7.     Reference: February 6th, 2024
Gene Product: February 1st, 2021
Gene Model: February 7th, 2017
3 months agosaur19 small auxin up RNA19:
 
GRMZM2G429254
Jiajie Wang et al. 2024. Integration of the Metabolome and Transcriptome Reveals Diurnal Variability in the Effects of Melatonin on Salt Tolerance in Maize Seedlings J Plant Growth Reg. :doi: 10.1007/s00344-023-11213-7.     Reference: February 6th, 2024
Gene Product: November 26th, 2021
Gene Model: November 26th, 2021
3 months agotsah1 tryptophan synthase A homolog1:
1.11
GRMZM2G046163
Jiajie Wang et al. 2024. Integration of the Metabolome and Transcriptome Reveals Diurnal Variability in the Effects of Melatonin on Salt Tolerance in Maize Seedlings J Plant Growth Reg. :doi: 10.1007/s00344-023-11213-7.     Reference: February 6th, 2024
Gene Product: October 14th, 2011
Variation: April 25th, 2023
Gene Model: September 10th, 2018
3 months agomybst1 single-repeat Myb protein1:
9.04
GRMZM2G034110
Silvia Calderone et al. 2024. Diverging cell wall strategies for drought adaptation in two maize inbreds with contrasting lodging resistance Plant Cell Environ.     Reference: February 6th, 2024
Gene Product: December 24th, 2015
Variation: January 26th, 2010
Gene Model: December 24th, 2015
3 months agodbf1 DRE-binding protein 1:
1.07
GRMZM2G061487
Jiajie Wang et al. 2024. Integration of the Metabolome and Transcriptome Reveals Diurnal Variability in the Effects of Melatonin on Salt Tolerance in Maize Seedlings J Plant Growth Reg. :doi: 10.1007/s00344-023-11213-7.     Reference: February 6th, 2024
Gene Product: April 10th, 2013
Variation: July 27th, 2005
Gene Model: July 27th, 2016
3 months agoiddp1 indeterminate domain p1:
1.08
GRMZM2G179677
Silvia Calderone et al. 2024. Diverging cell wall strategies for drought adaptation in two maize inbreds with contrasting lodging resistance Plant Cell Environ.     Reference: February 6th, 2024
Gene Product: January 3rd, 2015
Gene Model: January 3rd, 2015
3 months agoznf13 zinc finger protein13:
2.07
GRMZM2G134334
Jiajie Wang et al. 2024. Integration of the Metabolome and Transcriptome Reveals Diurnal Variability in the Effects of Melatonin on Salt Tolerance in Maize Seedlings J Plant Growth Reg. :doi: 10.1007/s00344-023-11213-7.     Reference: February 6th, 2024
Gene Product: November 14th, 2022
Gene Model: March 2nd, 2021
3 months agoremo4 remorin4:
7.04
GRMZM2G081949
Wu, FK et al. 2024. ZmARF1 positively regulates low phosphorus stress tolerance via modulating lateral root development in maize PLoS Genetics. :doi: 10.1371/journal.pgen.1011135.     Reference: February 5th, 2024
Variation: September 1st, 2003
Gene Model: September 11th, 2018
3 months agoumc1052  :
3.09
GRMZM2G071154
Wu, FK et al. 2024. ZmARF1 positively regulates low phosphorus stress tolerance via modulating lateral root development in maize PLoS Genetics. :doi: 10.1371/journal.pgen.1011135.     Reference: February 5th, 2024
Variation: March 18th, 2021
Gene Model: March 4th, 2021
3 months agoarftf1 ARF-transcription factor 1:
 
   Wu, FK et al. 2024. ZmARF1 positively regulates low phosphorus stress tolerance via modulating lateral root development in maize PLoS Genetics. :doi: 10.1371/journal.pgen.1011135.     Reference: February 5th, 2024
Gene Product: January 29th, 2022
3 months agoumc2181  :
1.08
GRMZM2G008290
Wu, FK et al. 2024. ZmARF1 positively regulates low phosphorus stress tolerance via modulating lateral root development in maize PLoS Genetics. :doi: 10.1371/journal.pgen.1011135.     Reference: February 5th, 2024
Variation: January 4th, 2017
Gene Model: January 4th, 2017
3 months agouce10 ubiquitin conjugating enzyme10:
6.07
GRMZM2G085849
Wu, FK et al. 2024. ZmARF1 positively regulates low phosphorus stress tolerance via modulating lateral root development in maize PLoS Genetics. :doi: 10.1371/journal.pgen.1011135.   AT2G33770 (TAIR) Reference: February 5th, 2024
Gene Product: December 19th, 2019
Variation: July 29th, 2004
Gene Model: August 29th, 2018
3 months agospms1 spermine synthase1:
 
GRMZM2G047867
Wu, FK et al. 2024. ZmARF1 positively regulates low phosphorus stress tolerance via modulating lateral root development in maize PLoS Genetics. :doi: 10.1371/journal.pgen.1011135.     Reference: February 5th, 2024
Gene Product: June 19th, 2020
Gene Model: June 19th, 2020
3 months agosid1 sister of indeterminate spikelet1:
 
GRMZM2G176175
Lindsay, PL et al. 2024. Cultivating potential: Harnessing plant stem cells for agricultural crop improvement. Molecular Plant. 17:50-74.     Reference: February 3rd, 2024
Gene Product: July 5th, 2019
Variation: October 17th, 2014
Gene Model: October 16th, 2014
3 months agobd1 branched silkless1:
7.05
GRMZM2G307119
Lindsay, PL et al. 2024. Cultivating potential: Harnessing plant stem cells for agricultural crop improvement. Molecular Plant. 17:50-74.   At5g18560 (TAIR)
LOC_Os01g21820 (MSU/TIGR)
Os07g0669500 (Gramene)
Reference: February 3rd, 2024
Gene Product: July 27th, 2009
Variation: August 13th, 2011
Gene Model: July 14th, 2011
3 months agocg1 corngrass1:
3.02
GRMZM2G022489
Lindsay, PL et al. 2024. Cultivating potential: Harnessing plant stem cells for agricultural crop improvement. Molecular Plant. 17:50-74.     Reference: February 3rd, 2024
Gene Product: June 17th, 2016
Variation: August 25th, 2011
Gene Model: April 5th, 2013
3 months agogt1 grassy tillers1:
1.04
GRMZM2G005624
Lindsay, PL et al. 2024. Cultivating potential: Harnessing plant stem cells for agricultural crop improvement. Molecular Plant. 17:50-74.     Reference: February 3rd, 2024
Gene Product: March 5th, 2012
Variation: December 14th, 2023
Gene Model: March 5th, 2012
3 months agots6 tasselseed6:
1.11
GRMZM5G862109
Lindsay, PL et al. 2024. Cultivating potential: Harnessing plant stem cells for agricultural crop improvement. Molecular Plant. 17:50-74.     Reference: February 3rd, 2024
Gene Product: July 5th, 2019
Variation: December 4th, 2013
Gene Model: July 14th, 2011
3 months agotsh4 tassel sheath4:
7.03
GRMZM2G307588
Lindsay, PL et al. 2024. Cultivating potential: Harnessing plant stem cells for agricultural crop improvement. Molecular Plant. 17:50-74.     Reference: February 3rd, 2024
Gene Product: July 5th, 2019
Variation: October 8th, 2011
Gene Model: October 6th, 2011
3 months agotcptf30 TCP-transcription factor 30:
 
   Lindsay, PL et al. 2024. Cultivating potential: Harnessing plant stem cells for agricultural crop improvement. Molecular Plant. 17:50-74.     Reference: February 3rd, 2024
Gene Product: September 27th, 2019
3 months agofea3 fasciated ear3:
 
GRMZM2G166524
Lindsay, PL et al. 2024. Cultivating potential: Harnessing plant stem cells for agricultural crop improvement. Molecular Plant. 17:50-74.   At3g25670 (TAIR)
LOC_Os01g02060 (MSU/TIGR)
Reference: February 3rd, 2024
Gene Product: February 1st, 2023
Variation: May 18th, 2016
Gene Model: May 18th, 2016
3 months agokrn4 kernel row number4:
 
GRMZM2G001541
Lindsay, PL et al. 2024. Cultivating potential: Harnessing plant stem cells for agricultural crop improvement. Molecular Plant. 17:50-74.     Reference: February 3rd, 2024
Variation: April 24th, 2020
Gene Model: August 11th, 2021
3 months agotin1 tiller number1:
 
GRMZM2G059088
Lindsay, PL et al. 2024. Cultivating potential: Harnessing plant stem cells for agricultural crop improvement. Molecular Plant. 17:50-74.     Reference: February 3rd, 2024
Gene Product: November 14th, 2022
Variation: December 6th, 2019
Gene Model: December 6th, 2019
3 months agoacco2 1-aminocyclopropane-1-carboxylate oxidase2:
7.02
GRMZM2G007249
Lindsay, PL et al. 2024. Cultivating potential: Harnessing plant stem cells for agricultural crop improvement. Molecular Plant. 17:50-74.     Reference: February 3rd, 2024
Gene Product: May 16th, 2016
Variation: October 5th, 2021
Gene Model: May 16th, 2016
3 months agopub54 plant U-box type E3 ubiquitin ligase54:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub10 plant U-box type E3 ubiquitin ligase10:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agoarm1 armadillo domain protein1:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2021
3 months agoarm5 armadillo domain protein5:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2021
3 months agoarm6 armadillo domain protein6:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2021
3 months agoarm8 armadillo domain protein8:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2021
3 months agoarm9 armadillo domain protein9:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2021
3 months agoarm10 armadillo domain protein10:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2021
3 months agoarm12 armadillo domain protein12:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2021
3 months agoarm13 armadillo domain protein13:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2021
3 months agoarm14 armadillo domain protein14:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2021
3 months agoarm15 armadillo domain protein15:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2021
3 months agoarm16 armadillo domain protein16:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2021
3 months agoarm22 armadillo domain protein22:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2021
3 months agoarm47 armadillo domain protein47:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2021
3 months agoarm53 armadillo domain protein53:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2021
3 months agopub46 plant U-box type E3 ubiquitin ligase46:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub1 plant U-box type E3 ubiquitin ligase1:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub3 plant U-box type E3 ubiquitin ligase3:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub4 plant U-box type E3 ubiquitin ligase4:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub6 plant U-box type E3 ubiquitin ligase6:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub13 plant U-box type E3 ubiquitin ligase13:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub14 plant U-box type E3 ubiquitin ligase14:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub15 plant U-box type E3 ubiquitin ligase15:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub16 plant U-box type E3 ubiquitin ligase16:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub17 plant U-box type E3 ubiquitin ligase17:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub18 plant U-box type E3 ubiquitin ligase18:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub19 plant U-box type E3 ubiquitin ligase19:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub21 plant U-box type E3 ubiquitin ligase21:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub23 plant U-box type E3 ubiquitin ligase23:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub26 plant U-box type E3 ubiquitin ligase26:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub27 plant U-box type E3 ubiquitin ligase27:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub28 plant U-box type E3 ubiquitin ligase28:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub29 plant U-box type E3 ubiquitin ligase29:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub31 plant U-box type E3 ubiquitin ligase31:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub32 plant U-box type E3 ubiquitin ligase32:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub35 plant U-box type E3 ubiquitin ligase35:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub36 plant U-box type E3 ubiquitin ligase36:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub38 plant U-box type E3 ubiquitin ligase38:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub42 plant U-box type E3 ubiquitin ligase42:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub43 plant U-box type E3 ubiquitin ligase43:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub44 plant U-box type E3 ubiquitin ligase44:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub45 plant U-box type E3 ubiquitin ligase45:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub48 plant U-box type E3 ubiquitin ligase48:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub49 plant U-box type E3 ubiquitin ligase49:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub50 plant U-box type E3 ubiquitin ligase50:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub51 plant U-box type E3 ubiquitin ligase51:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub53 plant U-box type E3 ubiquitin ligase53:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub56 plant U-box type E3 ubiquitin ligase56:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub57 plant U-box type E3 ubiquitin ligase57:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub58 plant U-box type E3 ubiquitin ligase58:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub62 plant U-box type E3 ubiquitin ligase62:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub65 plant U-box type E3 ubiquitin ligase65:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub66 plant U-box type E3 ubiquitin ligase66:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub67 plant U-box type E3 ubiquitin ligase67:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub69 plant U-box type E3 ubiquitin ligase69:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub73 plant U-box type E3 ubiquitin ligase73:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub74 plant U-box type E3 ubiquitin ligase74:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub76 plant U-box type E3 ubiquitin ligase76:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub81 plant U-box type E3 ubiquitin ligase81:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub85 plant U-box type E3 ubiquitin ligase85:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agoarm54 armadillo domain protein54:
2.06
GRMZM2G425965
Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2021
Gene Model: March 20th, 2020
3 months agopza01677  :
10.03
   Zhang, YQ et al. 2024. Readthrough events in plants reveal plasticity of stop codons. Cell Reports. 43:113723.     Reference: February 2nd, 2024
Variation: November 8th, 2017
3 months agopub61 plant U-box type E3 ubiquitin ligase61:
9.03
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub70 plant U-box type E3 ubiquitin ligase70:
1.05
GRMZM2G373329
Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
Gene Model: March 28th, 2021
3 months agopub33 plant U-box type E3 ubiquitin ligase33:
7.02
GRMZM2G092550
Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
Gene Model: July 6th, 2021
3 months agopub30 plant U-box type E3 ubiquitin ligase30:
9.04
GRMZM2G075104
Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
Gene Model: July 5th, 2021
3 months agolrp1 lateral root primordia1:
 
   Tanya Singh et al. 2024. Paenibacillus lentimorbus alleviates nutrient deficiency-induced stress in Zea mays by modulating root system architecture, auxin signaling, and metabolic pathways. Plant Cell Rep. 43:49.   AT5G12330 (TAIR) Reference: February 2nd, 2024
Gene Product: April 27th, 2015
3 months agopub52 plant U-box type E3 ubiquitin ligase52:
3.01
GRMZM2G153127
Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
Variation: September 1st, 2003
Gene Model: March 1st, 2017
3 months agopub60 plant U-box type E3 ubiquitin ligase60:
10.03
GRMZM2G304010
Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
Variation: September 1st, 2003
Gene Model: October 22nd, 2018
3 months agorth1 roothair defective1:
1.09
   Tanya Singh et al. 2024. Paenibacillus lentimorbus alleviates nutrient deficiency-induced stress in Zea mays by modulating root system architecture, auxin signaling, and metabolic pathways. Plant Cell Rep. 43:49.     Reference: February 2nd, 2024
Variation: April 2nd, 2007
3 months agorth3 roothair defective3:
1.03
   Tanya Singh et al. 2024. Paenibacillus lentimorbus alleviates nutrient deficiency-induced stress in Zea mays by modulating root system architecture, auxin signaling, and metabolic pathways. Plant Cell Rep. 43:49.     Reference: February 2nd, 2024
Gene Product: March 31st, 2021
Variation: June 30th, 2012
3 months agochr124 chromatin complex subunit A:
1.08
GRMZM2G435541
Zhang, YQ et al. 2024. Readthrough events in plants reveal plasticity of stop codons. Cell Reports. 43:113723.     Reference: February 2nd, 2024
Variation: September 1st, 2003
Gene Model: July 27th, 2016
3 months agoimpb15 importin beta15:
1.12
GRMZM2G167031
Zhang, YQ et al. 2024. Readthrough events in plants reveal plasticity of stop codons. Cell Reports. 43:113723.     Reference: February 2nd, 2024
Gene Product: November 15th, 2022
Gene Model: March 11th, 2022
3 months agopub12 plant U-box type E3 ubiquitin ligase12:
1.04
GRMZM2G030805
Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
Gene Model: March 16th, 2022
3 months agopub40 plant U-box type E3 ubiquitin ligase40:
3.05
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agorum1 rootless with undetectable meristems1:
 
GRMZM2G037368
Tanya Singh et al. 2024. Paenibacillus lentimorbus alleviates nutrient deficiency-induced stress in Zea mays by modulating root system architecture, auxin signaling, and metabolic pathways. Plant Cell Rep. 43:49.     Reference: February 2nd, 2024
Gene Product: June 16th, 2014
Variation: June 16th, 2014
Gene Model: June 16th, 2014
3 months agobtf3 basic transcription factor 3 homolog:
1.01
GRMZM2G041881
Zhang, YQ et al. 2024. Readthrough events in plants reveal plasticity of stop codons. Cell Reports. 43:113723.   AT1G17880 (TAIR) Reference: February 2nd, 2024
Variation: October 30th, 2012
Gene Model: June 9th, 2014
3 months agorul1 rum1-like1:
 
GRMZM2G163848
Tanya Singh et al. 2024. Paenibacillus lentimorbus alleviates nutrient deficiency-induced stress in Zea mays by modulating root system architecture, auxin signaling, and metabolic pathways. Plant Cell Rep. 43:49.     Reference: February 2nd, 2024
Variation: November 18th, 2011
Gene Model: November 17th, 2011
3 months agoarm24 armadillo domain protein24:
4.05
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2021
3 months agomgt1 magnesium transporter1:
 
GRMZM2G108477
Zhang, YQ et al. 2024. Readthrough events in plants reveal plasticity of stop codons. Cell Reports. 43:113723.     Reference: February 2nd, 2024
Gene Product: April 18th, 2016
Gene Model: April 18th, 2016
3 months agorth6 roothairless6:
 
GRMZM2G436299
Tanya Singh et al. 2024. Paenibacillus lentimorbus alleviates nutrient deficiency-induced stress in Zea mays by modulating root system architecture, auxin signaling, and metabolic pathways. Plant Cell Rep. 43:49.     Reference: February 2nd, 2024
Gene Product: October 7th, 2016
Variation: October 7th, 2016
Gene Model: October 7th, 2016
3 months agoarm104 armadillo domain protein104:
 
GRMZM2G144042
Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2021
Gene Model: October 10th, 2020
3 months agopub20 plant U-box type E3 ubiquitin ligase20:
5.06
GRMZM2G050734
Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
Gene Model: May 23rd, 2020
3 months agopub39 plant U-box type E3 ubiquitin ligase39:
 
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agoarm7 armadillo domain protein7:
5.04
GRMZM2G062499
Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2021
Gene Model: May 18th, 2020
3 months agopub80 plant U-box type E3 ubiquitin ligase80:
 
GRMZM2G476914
Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
Gene Model: May 16th, 2022
3 months agopub64 plant U-box type E3 ubiquitin ligase64:
5.03
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
Variation: September 25th, 2007
3 months agoarm23 armadillo domain protein23:
6.00
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2021
3 months agopub82 plant U-box type E3 ubiquitin ligase82:
8.06
   Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
3 months agopub25 plant U-box type E3 ubiquitin ligase25:
10.02
GRMZM2G063394
Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
Gene Model: July 9th, 2022
3 months agoarm3 armadillo domain protein3:
1.05
GRMZM2G092652
Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2021
Gene Model: February 13th, 2019
3 months agoIDP3898  :
8.05
GRMZM2G020096
Zhang, YQ et al. 2024. Readthrough events in plants reveal plasticity of stop codons. Cell Reports. 43:113723.     Reference: February 2nd, 2024
Variation: March 31st, 2005
Gene Model: July 12th, 2021
3 months agopub2 plant U-box type E3 ubiquitin ligase2:
1.02
GRMZM2G007486
Yongle Liu et al. 2024. Genome-wide identification and transcriptome profiling expression analysis of the U-box E3 ubiquitin ligase gene family related to abiotic stress in maize (Zea mays L.) BMC Genomics. 25:132.     Reference: February 2nd, 2024
Gene Product: February 1st, 2024
Gene Model: July 26th, 2021
3 months agofbl41 F-box protein41:
 
GRMZM2G109140
Zhangshuai Yang et al. 2024. The F-box protein ZmFBL41 negatively regulates disease resistance to Rhizoctonia solani by degrading the abscisic acid synthase ZmNCED6 in maize. Plant Cell Rep. 43:48.     Reference: February 1st, 2024
Gene Product: April 27th, 2022
Variation: September 30th, 2019
Gene Model: September 30th, 2019
3 months agodnaJ63 DnaJ/Hsp40 63:
 
   Xu, F et al. 2024. iFLAS: positive-unlabeled learning facilitates full-length transcriptome-based identification and functional exploration of alternatively spliced isoforms in maize. New Phytol. :doi: 10.1111/nph.19554.     Reference: January 31st, 2024
Gene Product: September 1st, 2003
3 months agohcp101b  :
4.10
   Xu, F et al. 2024. iFLAS: positive-unlabeled learning facilitates full-length transcriptome-based identification and functional exploration of alternatively spliced isoforms in maize. New Phytol. :doi: 10.1111/nph.19554.     Reference: January 31st, 2024
Variation: January 13th, 2021
3 months agocrr8 cytokinin response regulator8:
1.02
   Xu, F et al. 2024. iFLAS: positive-unlabeled learning facilitates full-length transcriptome-based identification and functional exploration of alternatively spliced isoforms in maize. New Phytol. :doi: 10.1111/nph.19554.     Reference: January 31st, 2024
Gene Product: June 30th, 2017
Variation: April 25th, 2008
3 months agoadh1 alcohol dehydrogenase1:
1.10
   Xu, F et al. 2024. iFLAS: positive-unlabeled learning facilitates full-length transcriptome-based identification and functional exploration of alternatively spliced isoforms in maize. New Phytol. :doi: 10.1111/nph.19554.     Reference: January 31st, 2024
Gene Product: July 8th, 2009
Variation: March 22nd, 2006
3 months agoals2 acetolactate synthase2:
5.04
GRMZM2G143008
Boyu Lu et al. 2023. Distinctive physiological and molecular responses of foxtail millet and maize to nicosulfuron. 14:1308584.     Reference: January 31st, 2024
Gene Product: September 1st, 2003
Variation: October 7th, 2020
Gene Model: July 27th, 2016
3 months agoals1 acetolactate synthase1:
4.05
   Boyu Lu et al. 2023. Distinctive physiological and molecular responses of foxtail millet and maize to nicosulfuron. 14:1308584.     Reference: January 31st, 2024
Gene Product: September 1st, 2003
Variation: October 7th, 2020
3 months agoiaa28 Aux/IAA-transcription factor 28:
 
   Xu, F et al. 2024. iFLAS: positive-unlabeled learning facilitates full-length transcriptome-based identification and functional exploration of alternatively spliced isoforms in maize. New Phytol. :doi: 10.1111/nph.19554.     Reference: January 31st, 2024
Variation: July 8th, 2017
3 months agomyb56 MYB-transcription factor 56:
 
   Li, BZ et al. 2024. ZmMYB56 Regulates Stomatal Closure and Drought Tolerance in Maize Seedlings by Regulating ZmTOM7 Expression at the Transcriptional Level New Crops. :doi: 10.1016/j.ncrops.2024.100012.     Reference: January 31st, 2024
Gene Product: July 25th, 2017
3 months agocdc202 cell division cycle202:
5.04
GRMZM2G130425
Xu, F et al. 2024. iFLAS: positive-unlabeled learning facilitates full-length transcriptome-based identification and functional exploration of alternatively spliced isoforms in maize. New Phytol. :doi: 10.1111/nph.19554.     Reference: January 31st, 2024
Variation: June 28th, 2018
Gene Model: June 28th, 2018
3 months agoadxr1 adrenodoxin reductase1:
 
GRMZM2G158163
Xu, F et al. 2024. iFLAS: positive-unlabeled learning facilitates full-length transcriptome-based identification and functional exploration of alternatively spliced isoforms in maize. New Phytol. :doi: 10.1111/nph.19554.   At4g32360 (TAIR) Reference: January 31st, 2024
Gene Product: October 30th, 2012
Gene Model: May 13th, 2015
3 months agodek40 defective kernel40:
 
GRMZM2G019538
Xu, F et al. 2024. iFLAS: positive-unlabeled learning facilitates full-length transcriptome-based identification and functional exploration of alternatively spliced isoforms in maize. New Phytol. :doi: 10.1111/nph.19554.     Reference: January 31st, 2024
Gene Product: June 13th, 2019
Variation: June 13th, 2019
Gene Model: June 13th, 2019
3 months agoZm00001d037315  :
 
   Xu, F et al. 2024. iFLAS: positive-unlabeled learning facilitates full-length transcriptome-based identification and functional exploration of alternatively spliced isoforms in maize. New Phytol. :doi: 10.1111/nph.19554.     Reference: January 31st, 2024
Gene Product: July 8th, 2019
3 months agosr45_3 splicing regulator45_3:
 
GRMZM2G073567
Xu, F et al. 2024. iFLAS: positive-unlabeled learning facilitates full-length transcriptome-based identification and functional exploration of alternatively spliced isoforms in maize. New Phytol. :doi: 10.1111/nph.19554.     Reference: January 31st, 2024
Gene Product: October 18th, 2023
Gene Model: March 12th, 2021
3 months agoiqd11 IQ-domain 11:
 
AC207628.4_FG011
Xu, F et al. 2024. iFLAS: positive-unlabeled learning facilitates full-length transcriptome-based identification and functional exploration of alternatively spliced isoforms in maize. New Phytol. :doi: 10.1111/nph.19554.     Reference: January 31st, 2024
Gene Product: May 23rd, 2021
Gene Model: May 23rd, 2021
3 months agoprh101 protein phosphatase homolog101:
 
AC155624.2_FG006
Xu, F et al. 2024. iFLAS: positive-unlabeled learning facilitates full-length transcriptome-based identification and functional exploration of alternatively spliced isoforms in maize. New Phytol. :doi: 10.1111/nph.19554.     Reference: January 31st, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoIDP2140  :
5.05
GRMZM2G128902
Xu, F et al. 2024. iFLAS: positive-unlabeled learning facilitates full-length transcriptome-based identification and functional exploration of alternatively spliced isoforms in maize. New Phytol. :doi: 10.1111/nph.19554.     Reference: January 31st, 2024
Variation: March 31st, 2005
Gene Model: May 20th, 2020
3 months agoIDP441  :
6.01
   Xu, F et al. 2024. iFLAS: positive-unlabeled learning facilitates full-length transcriptome-based identification and functional exploration of alternatively spliced isoforms in maize. New Phytol. :doi: 10.1111/nph.19554.     Reference: January 31st, 2024
Variation: March 31st, 2005
3 months agoarf4 ADP-ribosylation factor homolog4:
8.01
GRMZM2G015361
Xu, F et al. 2024. iFLAS: positive-unlabeled learning facilitates full-length transcriptome-based identification and functional exploration of alternatively spliced isoforms in maize. New Phytol. :doi: 10.1111/nph.19554.     Reference: January 31st, 2024
Gene Product: December 27th, 2021
Gene Model: September 30th, 2021
3 months agoGRMZM2G313184  :
 
   Shidong He et al. 2024. Nanopore Direct RNA Sequencing Reveals the Short-Term Salt Stress Response in Maize Roots Plants. 13:405.     Reference: January 30th, 2024
Gene Product: September 18th, 2015
3 months agomyb88 MYB-transcription factor 88:
4.00
   Shidong He et al. 2024. Nanopore Direct RNA Sequencing Reveals the Short-Term Salt Stress Response in Maize Roots Plants. 13:405.     Reference: January 30th, 2024
Gene Product: July 25th, 2017
3 months agofcr1 ferric-chelate reductase (NADH)1:
3.06
GRMZM2G133213
Chowdhury, NB et al. 2023. A multi-organ maize metabolic model connects temperature stress with energy production and reducing power generation. iScience. 26:108400.     Reference: January 30th, 2024
Gene Product: September 1st, 2003
Variation: July 9th, 2008
Gene Model: June 3rd, 2017
3 months agofcr2 ferric-chelate reductase (NADH)2:
6.06
GRMZM2G157263
Chowdhury, NB et al. 2023. A multi-organ maize metabolic model connects temperature stress with energy production and reducing power generation. iScience. 26:108400.     Reference: January 30th, 2024
Variation: June 27th, 2021
Gene Model: July 27th, 2016
3 months agonip2c NOD26-like membrane intrinsic protein2:
9.01
GRMZM2G081239
Pu Zhao et al. 2024. Integrated Transcriptomics and Metabolomics Analysis of Two Maize Hybrids (ZD309 and XY335) under Heat Stress at the Flowering Stage Genes. 15:189.     Reference: January 30th, 2024
Gene Product: January 27th, 2022
Variation: September 1st, 2003
Gene Model: June 3rd, 2015
3 months agobx3 benzoxazinone synthesis3:
4.01
GRMZM2G167549
Pu Zhao et al. 2024. Integrated Transcriptomics and Metabolomics Analysis of Two Maize Hybrids (ZD309 and XY335) under Heat Stress at the Flowering Stage Genes. 15:189.     Reference: January 30th, 2024
Gene Product: October 19th, 2011
Variation: November 12th, 2013
Gene Model: October 24th, 2011
3 months agowip1 wound induced protein1:
8.01
   Pu Zhao et al. 2024. Integrated Transcriptomics and Metabolomics Analysis of Two Maize Hybrids (ZD309 and XY335) under Heat Stress at the Flowering Stage Genes. 15:189.     Reference: January 30th, 2024
Gene Product: May 30th, 2014
Variation: September 1st, 2003
3 months agoglp1 germin-like protein1:
6.05
GRMZM2G064096
Ganesan Govindan et al. 2024. Role of Germin-Like Proteins (GLPs) in Biotic and Abiotic Stress Responses in Major Crops: A Review on Plant Defense Mechanisms and Stress Tolerance Plant Mol Biol Rep. :doi: 10.1007/s11105-024-01434-9.     Reference: January 30th, 2024
Gene Product: December 24th, 2015
Variation: August 25th, 2018
Gene Model: August 24th, 2018
3 months agome6 NADP-dependent malic enzyme6:
3.07
GRMZM2G159724
Chowdhury, NB et al. 2023. A multi-organ maize metabolic model connects temperature stress with energy production and reducing power generation. iScience. 26:108400.     Reference: January 30th, 2024
Gene Product: June 27th, 2019
Variation: August 16th, 2011
Gene Model: August 21st, 2014
3 months agoaldh5 aldehyde dehydrogenase5:
3.09
GRMZM2G097706
Chowdhury, NB et al. 2023. A multi-organ maize metabolic model connects temperature stress with energy production and reducing power generation. iScience. 26:108400.     Reference: January 30th, 2024
Gene Product: June 28th, 2005
Variation: June 20th, 2012
Gene Model: September 30th, 2015
3 months agome7 malic enzyme7:
 
   Chowdhury, NB et al. 2023. A multi-organ maize metabolic model connects temperature stress with energy production and reducing power generation. iScience. 26:108400.     Reference: January 30th, 2024
Gene Product: June 27th, 2019
3 months agocopt1 copper transporter1:
 
GRMZM2G003179
Pu Zhao et al. 2024. Integrated Transcriptomics and Metabolomics Analysis of Two Maize Hybrids (ZD309 and XY335) under Heat Stress at the Flowering Stage Genes. 15:189.     Reference: January 30th, 2024
Gene Product: July 24th, 2018
Gene Model: July 24th, 2018
3 months agoaldh18 aldehyde dehydrogenase18:
 
GRMZM2G122172
Chowdhury, NB et al. 2023. A multi-organ maize metabolic model connects temperature stress with energy production and reducing power generation. iScience. 26:108400.     Reference: January 30th, 2024
Gene Product: January 5th, 2024
Gene Model: October 2nd, 2019
3 months agoaldh23 aldehyde dehydrogenase23:
 
GRMZM2G407949
Chowdhury, NB et al. 2023. A multi-organ maize metabolic model connects temperature stress with energy production and reducing power generation. iScience. 26:108400.     Reference: January 30th, 2024
Gene Product: January 5th, 2024
Gene Model: October 2nd, 2019
3 months agoxat3 xylan α-1,3-arabinofuranosyl-transferase3:
 
GRMZM2G447347
Pu Zhao et al. 2024. Integrated Transcriptomics and Metabolomics Analysis of Two Maize Hybrids (ZD309 and XY335) under Heat Stress at the Flowering Stage Genes. 15:189.     Reference: January 30th, 2024
Gene Product: July 3rd, 2020
Gene Model: July 2nd, 2020
3 months agochls6 chalcone synthase6:
 
GRMZM2G346095
Pu Zhao et al. 2024. Integrated Transcriptomics and Metabolomics Analysis of Two Maize Hybrids (ZD309 and XY335) under Heat Stress at the Flowering Stage Genes. 15:189.     Reference: January 30th, 2024
Gene Product: September 1st, 2003
Gene Model: December 20th, 2020
3 months agomtl4 metallothionein4:
 
GRMZM2G070912
Pu Zhao et al. 2024. Integrated Transcriptomics and Metabolomics Analysis of Two Maize Hybrids (ZD309 and XY335) under Heat Stress at the Flowering Stage Genes. 15:189.     Reference: January 30th, 2024
Gene Product: September 1st, 2003
Gene Model: March 5th, 2021
3 months agochx11 cation/H+ antiporter 11:
 
GRMZM2G047835
Shidong He et al. 2024. Nanopore Direct RNA Sequencing Reveals the Short-Term Salt Stress Response in Maize Roots Plants. 13:405.     Reference: January 30th, 2024
Gene Product: April 26th, 2021
Gene Model: April 26th, 2021
3 months agowrky138 WRKY-transcription factor 138:
 
   Pu Zhao et al. 2024. Integrated Transcriptomics and Metabolomics Analysis of Two Maize Hybrids (ZD309 and XY335) under Heat Stress at the Flowering Stage Genes. 15:189.     Reference: January 30th, 2024
Gene Product: July 24th, 2017
3 months agoIDP3822  :
7.04
GRMZM2G092669
Pu Zhao et al. 2024. Integrated Transcriptomics and Metabolomics Analysis of Two Maize Hybrids (ZD309 and XY335) under Heat Stress at the Flowering Stage Genes. 15:189.     Reference: January 30th, 2024
Variation: March 31st, 2005
Gene Model: July 7th, 2021
3 months agome4 malic enzyme4:
 
GRMZM2G118770
Chowdhury, NB et al. 2023. A multi-organ maize metabolic model connects temperature stress with energy production and reducing power generation. iScience. 26:108400.     Reference: January 30th, 2024
Gene Product: June 27th, 2019
Variation: October 15th, 2010
Gene Model: August 21st, 2014
3 months agoaldh3 aldehyde dehydrogenase3:
3.09
GRMZM2G071021
Chowdhury, NB et al. 2023. A multi-organ maize metabolic model connects temperature stress with energy production and reducing power generation. iScience. 26:108400.     Reference: January 30th, 2024
Gene Product: June 28th, 2005
Variation: May 20th, 2009
Gene Model: October 6th, 2015
3 months agougt3 uridine diphosphate glycosyltransferase3:
 
   Zhao Ke et al. 2024. Functional identification and characterization of two flavonoid glycosyltransferases ZmUGT84A3 and ZmUGT84A4 from maize J Plant Biochem. :doi: 10.1007/s13562-024-00874-4.     Reference: January 29th, 2024
Gene Product: September 24th, 2018
3 months agougt2 uridine diphosphate glycosyltransferase2:
 
   Zhao Ke et al. 2024. Functional identification and characterization of two flavonoid glycosyltransferases ZmUGT84A3 and ZmUGT84A4 from maize J Plant Biochem. :doi: 10.1007/s13562-024-00874-4.     Reference: January 29th, 2024
Gene Product: September 24th, 2018
3 months agodzs10 delta zein structural10:
9.03 - 9.03
   Veena Devi et al. 2024. Unraveling the role of δ-zeins in methionine bio-fortification of maize Cereal Chem. :doi: 10.1002/cche.10762.     Reference: January 29th, 2024
Gene Product: September 1st, 2003
Variation: November 21st, 2012
3 months agoereb197 AP2-EREBP-transcription factor 197:
2.02
GRMZM2G174784
Dou, DD et al. 2024. ZmILI1 confers salt stress tolerance by regulating genes of phytohormone response in maize Environ Exp Bot. :doi: 10.1016/j.envexpbot.2024.105673.     Reference: January 29th, 2024
Variation: September 1st, 2003
Gene Model: February 17th, 2018
3 months agozp15 zein protein, 15kDa15:
6.01 - 6.02
GRMZM2G086294
Veena Devi et al. 2024. Unraveling the role of δ-zeins in methionine bio-fortification of maize Cereal Chem. :doi: 10.1002/cche.10762.     Reference: January 29th, 2024
Gene Product: July 8th, 2013
Variation: August 27th, 2013
Gene Model: July 8th, 2013
3 months agodzs18 delta zein structural18:
6.04
   Veena Devi et al. 2024. Unraveling the role of δ-zeins in methionine bio-fortification of maize Cereal Chem. :doi: 10.1002/cche.10762.     Reference: January 29th, 2024
Gene Product: September 1st, 2003
Variation: February 16th, 2014
3 months agocbl8 calcineurin B-like8:
 
GRMZM2G110080
Ruilin Wang et al. 2024. Calcineurin B-like protein ZmCBL8-1 promotes salt stress resistance in Arabidopsis. Planta. 259:49.     Reference: January 29th, 2024
Gene Product: October 19th, 2016
Gene Model: October 19th, 2016
3 months agochld1 Mg chelataseD1:
5.00
   Yancai Zhi et al. 2024. Photosynthesis promotion mechanisms of artificial humic acid depend on plant types: A hydroponic study on C3 and C4 plants. Sci Total Environ. :170404.     Reference: January 29th, 2024
Gene Product: June 11th, 2007
Variation: December 14th, 2020
3 months agofdx7 ferredoxin7:
 
   Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Gene Product: September 1st, 2003
3 months agopsb3 photosystem II3:
4.04
GRMZM2G174984
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Variation: April 14th, 2015
Gene Model: April 14th, 2015
3 months agofdx2 ferredoxin2:
6.00
GRMZM2G048313
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: July 27th, 2016
3 months agopsbs1 photosystem II subunit PsbS1:
3.06
GRMZM2G077333
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Variation: April 19th, 2012
Gene Model: October 10th, 2014
3 months agopsad1 photosystem I subunit d1:
5.01
GRMZM2G024150
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Gene Product: September 1st, 2003
Variation: December 19th, 2014
Gene Model: December 19th, 2014
3 months agocchh26 Cys2His2 Zinc Finger26:
 
   Ruidong Sun et al. 2024. QTL Mapping and Candidate Genes Analysis for Ear Length in Maize Population Derived from High-Generation Sister Lines J Plant Genet Resour. 25:270-278.     Reference: January 26th, 2024
Gene Product: November 14th, 2022
3 months agofdx3 ferredoxin3:
1.11
GRMZM2G053458
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Gene Product: September 1st, 2003
Variation: January 29th, 2015
Gene Model: July 25th, 2017
3 months agooec33 oxygen evolving complex, 33kDa subunit:
6.02
GRMZM2G175562
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Gene Product: September 1st, 2003
Variation: September 16th, 2014
Gene Model: September 16th, 2014
3 months agopsa6 photosystem I reaction center6:
7.01
GRMZM2G012397
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: January 8th, 2015
3 months agoploc1 plastocyanin homolog1:
6.01
GRMZM2G071450
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Gene Product: September 1st, 2003
Variation: August 18th, 2018
Gene Model: August 19th, 2018
3 months agoatpc1 ATP synthase chloroplast subunit1:
5.07
GRMZM5G862663
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Gene Product: September 1st, 2003
Variation: May 28th, 2013
Gene Model: February 18th, 2015
3 months agofdx1 ferredoxin1:
6.00
GRMZM2G122337
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: December 27th, 2016
3 months agonta1 N-terminal amidase1:
9.08
GRMZM2G110258
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.   At4g34090 (TAIR)
LOC_Os03g01920 (MSU/TIGR)
Reference: January 26th, 2024
Variation: August 18th, 2020
Gene Model: April 21st, 2017
3 months agooec17 oxygen evolving complex, 17kDa homolog:
7.03
GRMZM2G058070
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Gene Product: September 1st, 2003
Variation: July 18th, 2012
Gene Model: September 11th, 2018
3 months agofdx6 ferredoxin6:
 
GRMZM2G106190
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Gene Product: September 1st, 2003
Variation: November 18th, 2011
Gene Model: July 27th, 2016
3 months agoatpc2 ATP synthase chloroplast subunit2:
 
GRMZM2G048907
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Gene Product: July 17th, 2006
Variation: December 30th, 2015
Gene Model: February 17th, 2015
3 months agopyg7 pale yellowgreen7:
 
GRMZM5G809292
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.   AT1G22700 (TAIR) Reference: January 26th, 2024
Gene Product: May 20th, 2017
Variation: May 20th, 2017
Gene Model: May 20th, 2017
3 months agopspb1 photosystem II oxygen evolving polypeptide1:
 
GRMZM2G016677
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Gene Product: September 1st, 2003
Gene Model: July 15th, 2017
3 months agoincw7 invertase cell wall7:
 
GRMZM2G018716
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Gene Product: June 12th, 2018
Gene Model: June 12th, 2018
3 months agofdx5 ferredoxin5:
 
GRMZM2G122327
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Gene Product: September 1st, 2003
Variation: August 3rd, 2018
Gene Model: August 1st, 2018
3 months agopsb28 photosystem II subunit28:
 
GRMZM2G005433
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Variation: June 18th, 2021
Gene Model: February 26th, 2021
3 months agopas1 pale and small1:
 
GRMZM2G002754
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Gene Product: September 1st, 2003
Variation: May 11th, 2021
Gene Model: May 11th, 2021
3 months agopet7 photosynthetic electron transport7:
 
GRMZM2G013342
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Gene Product: May 11th, 2021
Gene Model: May 11th, 2021
3 months agofdx4 ferredoxin4:
 
GRMZM2G146395
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Gene Product: September 1st, 2003
Gene Model: August 27th, 2021
3 months agoptac3 plastid transcriptionally active3:
 
GRMZM2G116526
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Gene Product: December 21st, 2022
Gene Model: November 16th, 2021
3 months agopspb2 photosystem II oxygen evolving polypeptide2:
7.01
GRMZM2G047954
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Gene Product: September 1st, 2003
Variation: March 31st, 2005
Gene Model: January 30th, 2019
3 months agopsei9 cystatin9:
4.03
AC196110.4_FG004
Xiao, N et al. 2024. Overexpression of ZmSUS1 increased drought resistance of maize (Zea mays L.) by regulating sucrose metabolism and soluble sugar content. Planta. 259:43.     Reference: January 26th, 2024
Gene Product: April 21st, 2008
Variation: April 21st, 2008
Gene Model: February 12th, 2014
3 months agozim22 ZIM-transcription factor 22:
 
   Jianjun Sun et al. 2024. Transcriptomic and Metabolomic Analyses Reveal the Role of Phenylalanine Metabolism in the Maize Response to Stalk Rot Caused by Fusarium proliferatum. Int J Mol Sci. 25:1492.     Reference: January 25th, 2024
Gene Product: February 24th, 2021
3 months agoalm3 aluminum tolerance3:
 
GRMZM5G886177
Jianjun Sun et al. 2024. Transcriptomic and Metabolomic Analyses Reveal the Role of Phenylalanine Metabolism in the Maize Response to Stalk Rot Caused by Fusarium proliferatum. Int J Mol Sci. 25:1492.     Reference: January 25th, 2024
Gene Product: September 28th, 2005
Gene Model: July 9th, 2020
3 months agonaat2 nicotianamine aminotransferase2:
 
GRMZM2G006480
Jianjun Sun et al. 2024. Transcriptomic and Metabolomic Analyses Reveal the Role of Phenylalanine Metabolism in the Maize Response to Stalk Rot Caused by Fusarium proliferatum. Int J Mol Sci. 25:1492.     Reference: January 25th, 2024
Gene Product: January 18th, 2022
Gene Model: January 18th, 2022
3 months agogen1 GEN1 Holliday junction 5' flap endonuclease homolog1:
 
   Jiang, LG et al. 2024. MSH7 confers quantitative variation in pollen fertility and boosts grain yield in maize. Plant Biotechnol J.   AT1G01880 (TAIR) Reference: January 24th, 2024
Gene Product: January 24th, 2024
Variation: January 24th, 2024
3 months agogen2 GEN1 Holliday junction 5' flap endonuclease homolog2:
 
   Jiang, LG et al. 2024. MSH7 confers quantitative variation in pollen fertility and boosts grain yield in maize. Plant Biotechnol J.   AT1G01880 (TAIR) Reference: January 24th, 2024
Gene Product: January 24th, 2024
Variation: January 24th, 2024
3 months agomus2 MutS homolog2:
3.02 - 3.03
GRMZM2G110212
Jiang, LG et al. 2024. MSH7 confers quantitative variation in pollen fertility and boosts grain yield in maize. Plant Biotechnol J.   AT3G24495 (TAIR) Reference: January 24th, 2024
Gene Product: August 15th, 2005
Variation: January 24th, 2024
Gene Model: August 5th, 2015
3 months agofen1 flap endonuclease1:
6.07
GRMZM2G121262
Dresselhaus, T et al. 2006. Plant Physiol 140:512-527   AT5G26680 (TAIR) Reference: July 31st, 2017
Gene Product: January 24th, 2024
Variation: July 31st, 2017
Gene Model: July 31st, 2017
3 months agoprh130 protein phosphatase homolog130:
 
   Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
3 months agoprh131 protein phosphatase homolog131:
 
   Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
3 months agoprh132 protein phosphatase homolog132:
 
   Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
3 months agoprh135 protein phosphatase homolog135:
 
   Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
3 months agoprh136 protein phosphatase homolog136:
 
   Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
3 months agokpp1 kinase associated protein phosphatase1:
7.02
GRMZM2G042627
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: July 30th, 2015
3 months agoprh36 protein phosphatase homolog36:
1.04
GRMZM2G077960
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: March 31st, 2021
3 months agoprh63 protein phosphatase homolog63:
2.06
GRMZM2G153675
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: May 1st, 2021
3 months agoprh46 protein phosphatase homolog46:
10.04
GRMZM2G109496
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: July 20th, 2021
3 months agoprh47 protein phosphatase homolog47:
2.02
GRMZM2G111232
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: April 23rd, 2021
3 months agoprh106 protein phosphatase homolog106:
9.05
GRMZM2G006429
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Variation: April 20th, 2017
Gene Model: April 20th, 2017
3 months agoprh115 protein phosphatase homolog115:
2.08
GRMZM2G021610
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Variation: September 1st, 2003
Gene Model: March 22nd, 2020
3 months agoprh88 protein phosphatase homolog88:
6.08 - 6.08
GRMZM2G412937
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Variation: September 1st, 2003
Gene Model: August 30th, 2018
3 months agoprh16 putative protein phosphatase 2C 16:
2.01
GRMZM2G056572
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Variation: February 17th, 2017
Gene Model: March 6th, 2017
3 months agoprh24 protein phosphatase homolog24:
5.00
GRMZM2G144109
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Variation: September 1st, 2003
Gene Model: June 13th, 2018
3 months agodbptf1 DBP-transcription factor 1:
 
   Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
3 months agodbptf2 DBP-transcription factor 2:
 
   Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Variation: March 17th, 2021
3 months agodbptf3 DBP-transcription factor 3:
 
   Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
3 months agodbptf4 DBP-transcription factor 4:
 
   Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
3 months agomyb18 MYB-transcription factor 18:
 
   Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
3 months agoprh128 protein phosphatase homolog128:
9.04 - 9.05
GRMZM2G072573
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Variation: September 1st, 2003
Gene Model: February 28th, 2018
3 months agoprh133 protein phosphatase homolog133:
1.11
GRMZM2G093776
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: February 1st, 2017
3 months agoprh73 protein phosphatase homolog73:
3.04
GRMZM2G173734
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: April 1st, 2020
3 months agoprh8 protein phosphatase homolog8:
 
GRMZM2G122228
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: October 18th, 2016
3 months agoprh9 protein phosphatase homolog9:
 
GRMZM5G818101
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: October 18th, 2016
3 months agoprh10 protein phosphatase homolog10:
 
GRMZM2G019819
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: October 18th, 2016
3 months agoprh11 protein phosphatase homolog11:
 
GRMZM2G159811
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: October 18th, 2016
3 months agoprh13 protein phosphatase homolog13:
 
GRMZM2G134628
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: October 18th, 2016
3 months agoprh14 protein phosphatase homolog14:
 
GRMZM2G102255
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: October 18th, 2016
3 months agoprh18 protein phosphatase homolog18:
 
GRMZM2G437575
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: January 19th, 2018
3 months agoprh19 protein phosphatase homolog19:
 
GRMZM2G001243
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: January 19th, 2018
3 months agoprh20 protein phosphatase homolog20:
 
GRMZM2G300125
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: January 19th, 2018
3 months agoprh22 protein phosphatase homolog 22:
 
GRMZM2G069713
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: January 7th, 2020
3 months agoprh23 protein phosphatase homolog23:
 
GRMZM2G047376
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: June 22nd, 2020
3 months agoprh129 protein phosphatase homolog129:
 
GRMZM2G469012
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: January 31st, 2021
Gene Model: January 31st, 2021
3 months agoprh42 protein phosphatase homolog42:
 
GRMZM2G104076
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: January 31st, 2021
Gene Model: November 24th, 2021
3 months agoprh82 protein phosphatase homolog82:
 
GRMZM2G372297
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: January 31st, 2021
3 months agoprh91 protein phosphatase homolog91:
 
GRMZM2G465287
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: August 19th, 2021
3 months agoprh103 protein phosphatase homolog103:
 
GRMZM2G000603
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh107 protein phosphatase homolog107:
 
GRMZM2G009163
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh108 protein phosphatase homolog108:
 
GRMZM2G010017
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh116 protein phosphatase homolog116:
 
GRMZM2G040452
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh117 protein phosphatase homolog117:
 
GRMZM2G040642
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh121 protein phosphatase homolog121:
 
GRMZM2G050512
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh122 protein phosphatase homolog122:
 
GRMZM2G052699
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh126 protein phosphatase homolog126:
 
GRMZM2G057768
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh30 protein phosphatase homolog30:
 
GRMZM2G067910
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh33 protein phosphatase homolog33:
 
GRMZM2G071196
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh34 protein phosphatase homolog34:
 
GRMZM2G073788
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh35 protein phosphatase homolog35:
 
GRMZM2G074489
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh37 protein phosphatase homolog37:
 
GRMZM2G081359
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh40 protein phosphatase homolog40:
 
GRMZM2G102560
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh49 protein phosphatase homolog49:
 
GRMZM2G113016
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh50 protein phosphatase homolog50:
 
GRMZM2G119623
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh51 protein phosphatase homolog51:
 
GRMZM2G120246
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh58 protein phosphatase homolog58:
 
GRMZM2G141859
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh60 protein phosphatase homolog60:
 
GRMZM2G150213
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh62 protein phosphatase homolog62:
 
GRMZM2G151254
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh64 protein phosphatase homolog64:
 
GRMZM2G155991
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh65 protein phosphatase homolog65:
 
GRMZM2G156543
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh67 protein phosphatase homolog67:
 
GRMZM2G158818
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh69 protein phosphatase homolog69:
 
GRMZM2G161544
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh79 protein phosphatase homolog79:
 
GRMZM2G311187
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh80 protein phosphatase homolog80:
 
GRMZM2G342197
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh86 protein phosphatase homolog86:
 
GRMZM2G407605
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh89 protein phosphatase homolog89:
 
GRMZM2G442404
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 26th, 2021
3 months agoprh92 protein phosphatase homolog92:
 
GRMZM2G479665
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 26th, 2021
3 months agoprh94 protein phosphatase homolog94:
 
GRMZM5G829894
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 26th, 2021
3 months agoprh95 protein phosphatase homolog95:
 
GRMZM5G833774
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 26th, 2021
3 months agoprh96 protein phosphatase homolog96:
 
GRMZM5G836628
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 26th, 2021
3 months agoprh97 protein phosphatase homolog97:
 
GRMZM5G891266
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 26th, 2021
3 months agoprh12 protein phosphatase homolog12:
6.07
   Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Variation: October 18th, 2016
3 months agoiaa46 Aux/IAA-transcription factor 46:
6.05
   Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
3 months agoprh109 protein phosphatase homolog109:
7.03
GRMZM2G010298
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: July 27th, 2020
3 months agoprh53 protein phosphatase homolog53:
7.02
GRMZM2G126832
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: July 21st, 2020
3 months agoprh43 protein phosphatase homolog43:
7.04
GRMZM2G107565
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: July 28th, 2020
3 months agoprh105 protein phosphatase homolog105:
7.03
GRMZM2G006416
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
3 months agoprh57 protein phosphatase homolog57:
8.05
GRMZM2G136765
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: September 2nd, 2019
3 months agoprh54 protein phosphatase homolog54:
9.06
GRMZM2G130943
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: June 27th, 2020
3 months agoprh29 protein phosphatase homolog29:
10.03
GRMZM2G060798
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: July 3rd, 2020
3 months agoprh119 protein phosphatase homolog119:
10.04
GRMZM2G044382
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: September 12th, 2021
3 months agoprh76 protein phosphatase homolog76:
10.07
   Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Variation: September 25th, 2007
3 months agoprh72 protein phosphatase homolog72:
1.06
GRMZM2G170299
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Variation: March 31st, 2005
Gene Model: February 13th, 2019
3 months agoprh113 protein phosphatase homolog113:
6.02
GRMZM2G019812
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Variation: March 31st, 2005
Gene Model: January 16th, 2020
3 months agoprh70 protein phosphatase homolog70:
4.10
GRMZM2G166035
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: April 9th, 2013
3 months agoprh32 protein phosphatase homolog32:
5.03
GRMZM2G069970
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: May 11th, 2020
3 months agoprh112 protein phosphatase homolog112:
2.04
GRMZM2G016749
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: February 21st, 2020
3 months agoprh45 protein phosphatase homolog45:
 
GRMZM2G108309
Yunyun Pang et al. 2024. Identification of the Maize PP2C Gene Family and Functional Studies on the Role of ZmPP2C15 in Drought Tolerance Plants. 13:340.     Reference: January 23rd, 2024
Gene Product: October 25th, 2021
Gene Model: June 24th, 2020
3 months agocepr2 constitutive expresser of pathogenesis-related genes2:
 
   Zhou, Y et al. 2024. Genetic regulation of self-organizing azimuthal canopy orientations and their impacts on light interception in maize Plant Cell. :doi: 10.1093/plcell/koae007.   AT5G64930 (TAIR) Reference: January 22nd, 2024
Gene Product: September 15th, 2022
Variation: January 22nd, 2024
3 months agod14b dwarf14 ortholog-b:
 
   Zhang, C et al. 2024. The Overexpression of Zea mays Strigolactone Receptor Gene D14 Enhances Drought Resistance in Arabidopsis thaliana L. Int J Mol Sci. 25:1327.   AT3G03990 (TAIR) Reference: January 22nd, 2024
Gene Product: December 27th, 2022
Variation: December 27th, 2022
3 months agoglu21 beta-glucosidase21:
 
   Zhou, Y et al. 2024. Genetic regulation of self-organizing azimuthal canopy orientations and their impacts on light interception in maize Plant Cell. :doi: 10.1093/plcell/koae007.     Reference: January 22nd, 2024
Gene Product: June 26th, 2019
3 months agocry4 cryptochrome4:
4.05
   Zhou, Y et al. 2024. Genetic regulation of self-organizing azimuthal canopy orientations and their impacts on light interception in maize Plant Cell. :doi: 10.1093/plcell/koae007.     Reference: January 22nd, 2024
Gene Product: August 31st, 2018
3 months agonrat5 nramp aluminum transporter5:
7.02
GRMZM2G147560
Gu, L et al. 2024. The maize WRKY transcription factor ZmWRKY64 confers cadmium tolerance in Arabidopsis and maize (Zea mays L.). Plant Cell Rep. 43:44.     Reference: January 22nd, 2024
Gene Product: August 17th, 2015
Gene Model: July 6th, 2021
3 months agophyA2 phytochromeA2:
5.01
GRMZM2G181028
Zhou, Y et al. 2024. Genetic regulation of self-organizing azimuthal canopy orientations and their impacts on light interception in maize Plant Cell. :doi: 10.1093/plcell/koae007.     Reference: January 22nd, 2024
Gene Product: June 30th, 2009
Variation: September 1st, 2003
Gene Model: August 13th, 2014
3 months agod14a dwarf14 ortholog-a:
1.00
GRMZM2G077127
Zhang, C et al. 2024. The Overexpression of Zea mays Strigolactone Receptor Gene D14 Enhances Drought Resistance in Arabidopsis thaliana L. Int J Mol Sci. 25:1327.   AT3G03990 (TAIR) Reference: January 22nd, 2024
Gene Product: December 27th, 2022
Variation: December 27th, 2022
Gene Model: February 4th, 2020
3 months agoalt7 alanine aminotransferase7:
7.00
GRMZM2G120563
Zhou, Y et al. 2024. Genetic regulation of self-organizing azimuthal canopy orientations and their impacts on light interception in maize Plant Cell. :doi: 10.1093/plcell/koae007.     Reference: January 22nd, 2024
Gene Product: October 2nd, 2020
Gene Model: July 23rd, 2014
3 months agophot2 blue-light receptor phototropin 2:
 
GRMZM2G032351
Zhou, Y et al. 2024. Genetic regulation of self-organizing azimuthal canopy orientations and their impacts on light interception in maize Plant Cell. :doi: 10.1093/plcell/koae007.     Reference: January 22nd, 2024
Gene Product: May 13th, 2014
Gene Model: May 13th, 2014
3 months agodnaJ23 DnaJ/Hsp40 23:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ46 DnaJ/Hsp40 46:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agohsp31 heat shock protein31:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: January 15th, 2019
3 months agodnaJ16 DnaJ/Hsp40 16:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ13 DnaJ/Hsp40 13:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ22 DnaJ/Hsp40 22:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ24 DnaJ/Hsp40 24:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ26 DnaJ/Hsp40 26:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ28 DnaJ/Hsp40 28:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ29 DnaJ/Hsp40 29:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ30 DnaJ/Hsp40 30:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ32 DnaJ/Hsp40 32:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ37 DnaJ/Hsp40 37:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ40 DnaJ/Hsp40 40:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ44 DnaJ/Hsp40 44:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ62 DnaJ/Hsp40 62:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ67 DnaJ/Hsp40 67:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ74 DnaJ/Hsp40 74:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ75 DnaJ/Hsp40 75:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ76 DnaJ/Hsp40 76:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ81 DnaJ/Hsp40 81:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ82 DnaJ/Hsp40 82:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ85 DnaJ/Hsp40 85:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ88 DnaJ/Hsp40 88:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ93 DnaJ/Hsp40 93:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ95 DnaJ/Hsp40 95:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agohsp17.2 heat shock protein17.2:
3.04
GRMZM2G158232
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: March 3rd, 2015
3 months agocdj3 chaperone DNA J3:
5.03
GRMZM2G134980
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Variation: August 27th, 2021
Gene Model: August 27th, 2021
3 months agodnaJ42 DnaJ/Hsp40 42:
4.07
GRMZM2G054076
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: May 24th, 2021
3 months agodnaJ1 DnaJ/Hsp40 1:
1.03
GRMZM2G040561
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: March 30th, 2021
3 months agohsp10 heat shock protein10:
1.03
GRMZM2G481529
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: January 15th, 2019
Variation: August 8th, 2017
Gene Model: August 8th, 2017
3 months agodnaJ66 DnaJ/Hsp40 66:
6.07
GRMZM5G851710
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: May 27th, 2022
3 months agodnaJ96 DnaJ/Hsp40 96:
10.03
GRMZM5G856084
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: July 19th, 2021
3 months agohsp70-5 heat shock protein70-5:
2.07
GRMZM2G365374
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: February 20th, 2019
3 months agocpn2 chaperonin2:
1.08
GRMZM2G416120
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: May 20th, 2015
3 months agohsp70-22 heat shock protein70-22:
10.03
GRMZM2G001500
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: January 11th, 2018
3 months agobip2 Binding protein homolog2:
4.11
GRMZM2G415007
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: March 30th, 2015
3 months agoumc1278  :
1.07
GRMZM2G092595
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Variation: September 1st, 2003
Gene Model: October 6th, 2016
3 months agoumc1329  :
4.06
GRMZM2G122767
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Variation: September 1st, 2003
Gene Model: April 21st, 2020
3 months agohsp1 heat shock protein1:
8.01
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
3 months agohsp70-16 heat shock protein70-16:
8.03
GRMZM2G063676
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: September 18th, 2018
3 months agoumc1454  :
2.04
AC235541.1_FG002
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Variation: March 18th, 2021
Gene Model: February 21st, 2018
3 months agoumc1461  :
1.05
AC202185.4_FG004
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Variation: September 1st, 2003
Gene Model: November 8th, 2016
3 months agocps2 chloroplast protein synthesis2:
6.01 - 6.08
AC215201.3_FG005
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: October 3rd, 2011
Variation: December 30th, 2015
Gene Model: September 6th, 2011
3 months agohsp3 heat shock protein3:
7.00
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
3 months agotcptf22 TCP-transcription factor 22:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 27th, 2019
3 months agotcptf27 TCP-transcription factor 27:
 
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 27th, 2019
3 months agoumc1641  :
3.09
GRMZM2G064031
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Variation: March 7th, 2017
Gene Model: March 7th, 2017
3 months agoumc1679  :
5.01
AC210013.4_FG018
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Variation: September 1st, 2003
Gene Model: June 15th, 2018
3 months agohsp19 heat shock protein19:
9.06
GRMZM2G024718
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: February 28th, 2018
3 months agohsp18a 18 kda heat shock protein18a:
9.04 - 9.05
GRMZM2G404249
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Variation: June 27th, 2014
Gene Model: June 27th, 2014
3 months agohsp90 heat shock protein, 90 kDa:
10.04
GRMZM5G833699
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: May 18th, 2021
Variation: September 1st, 2003
Gene Model: November 3rd, 2014
3 months agocip1 cytokinin inducible protease1:
3.04
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: June 3rd, 2014
Variation: January 10th, 2014
3 months agocdj1 chaperone DNA J homolog1:
1.11
GRMZM2G134917
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Variation: September 29th, 2012
Gene Model: July 27th, 2016
3 months agocpn1 chaperonin 1:
5.03
GRMZM2G111477
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Variation: May 20th, 2015
Gene Model: May 20th, 2015
3 months agobip1 Binding protein homolog1:
5.03
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Variation: October 30th, 2012
3 months agohsp18c heat shock protein18c:
8.02
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Variation: January 2nd, 2013
3 months agohsp18f heat shock protein18f:
3.02
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Variation: July 18th, 2014
3 months agoshpl1 shepherd-like1:
5.03
GRMZM2G399073
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Variation: June 23rd, 2015
Gene Model: June 23rd, 2015
3 months agodnaJ6 DnaJ/Hsp40 6:
1.04
GRMZM2G125304
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Variation: October 5th, 2016
Gene Model: November 4th, 2016
3 months agodnaJ25 DnaJ/Hsp40 25:
2.04
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agobip3 binding protein3:
 
GRMZM2G471196
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: July 7th, 2017
3 months agohsp22 heat shock protein22:
4.07
GRMZM2G007729
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: January 15th, 2019
Gene Model: October 18th, 2013
3 months agodnaJ70 DnaJ/Hsp40 70:
 
GRMZM2G145152
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: September 28th, 2016
3 months agohsp6 heat shock protein6:
 
AC209784.3_FG007
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: January 14th, 2019
3 months agohsp7 heat shock protein7:
 
GRMZM5G802801
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: January 14th, 2019
3 months agohsp8 heat shock protein8:
 
GRMZM2G080724
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: January 15th, 2019
Variation: January 22nd, 2021
Gene Model: January 14th, 2019
3 months agohsp9 heat shock protein9:
 
GRMZM2G046382
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: January 15th, 2019
Gene Model: January 14th, 2019
3 months agohsp12 heat shock protein12:
 
GRMZM2G158232
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: January 15th, 2019
Gene Model: January 14th, 2019
3 months agodnaJ77 DnaJ/Hsp40 77:
 
GRMZM2G086964
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: September 16th, 2019
3 months agocpn10  :
 
GRMZM2G091189
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Variation: March 18th, 2021
Gene Model: April 22nd, 2020
3 months agohsp20 heat shock protein20:
 
GRMZM2G399136
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: January 15th, 2019
Gene Model: August 26th, 2020
3 months agocdj4 chaperone DNA J4:
 
GRMZM2G399136
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: August 26th, 2020
3 months agohsp24 heat shock protein24:
 
GRMZM2G375517
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: January 15th, 2019
Gene Model: August 26th, 2020
3 months agohsp27 heat shock protein27:
 
GRMZM2G335242
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: January 15th, 2019
Gene Model: September 14th, 2020
3 months agohsp28 heat shock protein28:
 
GRMZM2G098167
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: January 15th, 2019
Gene Model: September 14th, 2020
3 months agohsp13 heat shock protein13:
 
GRMZM2G012631
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: May 18th, 2021
Gene Model: October 10th, 2020
3 months agohsp70-1 heat shock protein70-1:
 
GRMZM2G056039
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: December 18th, 2020
3 months agohsp70-2 heat shock protein70-2:
 
GRMZM2G079668
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: December 18th, 2020
3 months agohsp70-7 heat shock protein70-7:
 
GRMZM2G158093
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: December 18th, 2020
3 months agohsp70-9 heat shock protein70-9:
 
GRMZM2G020040
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: December 18th, 2020
3 months agohsp70-10 heat shock protein70-10:
 
GRMZM2G056766
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: December 18th, 2020
3 months agohsp70-12 heat shock protein70-12:
 
GRMZM2G153815
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: December 18th, 2020
3 months agohsp70-14 heat shock protein70-14:
 
GRMZM2G023232
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: December 18th, 2020
3 months agodnaJ57 DnaJ/Hsp40 57:
5.08
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
3 months agohsp29 heat shock protein29:
 
GRMZM5G803365
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: January 15th, 2019
Gene Model: March 1st, 2022
3 months agohsp30 heat shock protein30:
 
GRMZM2G429396
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: January 15th, 2019
Gene Model: March 1st, 2022
3 months agodnaJ65 DnaJ/Hsp40 65:
 
GRMZM2G175860
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: July 18th, 2022
3 months agofabc1 forms aploid and binucleate cells 1a ortholog1:
6.04
GRMZM2G132373
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.   AT4G33240 (TAIR) Reference: January 20th, 2024
Gene Product: October 20th, 2021
Variation: November 1st, 2021
Gene Model: January 13th, 2020
3 months agodnaJ61 DnaJ/Hsp40 61:
6.01
GRMZM2G473367
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: July 10th, 2020
3 months agodnaJ79 DnaJ/Hsp40 79:
8.05
GRMZM2G119483
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: September 1st, 2019
3 months agodnaJ89 DnaJ/Hsp40 89:
9.04
GRMZM2G013934
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: July 7th, 2022
3 months agohsp5 heat shock protein5:
9.06
GRMZM2G366532
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: January 14th, 2019
3 months agodnaJ94 DnaJ/Hsp40 94:
10.02
   Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Variation: September 25th, 2007
3 months agodnaJ52 DnaJ/Hsp40 52:
5.04
GRMZM2G137495
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: May 17th, 2020
3 months agohsp4 heat shock protein4:
7.02
GRMZM2G069651
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: May 18th, 2021
Gene Model: January 14th, 2019
3 months agodnaJ15 DnaJ/Hsp40 15:
1.09
GRMZM2G081910
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: February 14th, 2020
3 months agodnaJ54 DnaJ/Hsp40 54:
 
GRMZM2G118731
Rubens Diogo Jr et al. 2023. Maize heat shock proteins—prospection, validation, categorization and in silico analysis of the different ZmHSP families Stress Biol. :doi: 10.1007/s44154-023-00104-2.     Reference: January 20th, 2024
Gene Product: September 1st, 2003
Gene Model: March 13th, 2021
3 months agodnaJ78 DnaJ/Hsp40 78:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ33 DnaJ/Hsp40 33:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ60 DnaJ/Hsp40 60:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ83 DnaJ/Hsp40 83:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ3 DnaJ/Hsp40 3:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ4 DnaJ/Hsp40 4:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ7 DnaJ/Hsp40 7:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ9 DnaJ/Hsp40 9:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ12 DnaJ/Hsp40 12:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ18 DnaJ/Hsp40 18:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ20 DnaJ/Hsp40 20:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ27 DnaJ/Hsp40 27:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ34 DnaJ/Hsp40 34:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ35 DnaJ/Hsp40 35:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ41 DnaJ/Hsp40 41:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ43 DnaJ/Hsp40 43:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ47 DnaJ/Hsp40 47:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ49 DnaJ/Hsp40 49:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ55 DnaJ/Hsp40 55:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ64 DnaJ/Hsp40 64:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ68 DnaJ/Hsp40 68:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ69 DnaJ/Hsp40 69:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ71 DnaJ/Hsp40 71:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ72 DnaJ/Hsp40 72:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ84 DnaJ/Hsp40 84:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ86 DnaJ/Hsp40 86:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ87 DnaJ/Hsp40 87:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ90 DnaJ/Hsp40 90:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ97 DnaJ/Hsp40 97:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ99 DnaJ/Hsp40 99:
 
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agobsd2 bundle sheath defective2:
1.05
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
Variation: October 14th, 2009
3 months agodnaJ39 DnaJ/Hsp40 39:
3.09
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ56 DnaJ/Hsp40 56:
5.08
GRMZM2G098058
Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
Gene Model: August 29th, 2021
3 months agodnaJ36 DnaJ/Hsp40 36:
3.04
GRMZM2G104045
Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
Gene Model: May 14th, 2021
3 months agodnaJ45 DnaJ/Hsp40 45:
5.00
GRMZM2G138511
Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
Gene Model: July 23rd, 2021
3 months agopsa2 photosystemI2:
 
GRMZM2G021687
Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
Variation: September 18th, 2014
Gene Model: September 18th, 2014
3 months agodnaJ80 DnaJ/Hsp40 80:
8.05
GRMZM2G168590
Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: September 1st, 2019
3 months agodnaJ19 DnaJ/Hsp40 19:
2.02
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
Variation: September 25th, 2007
3 months agodnaJ21 DnaJ/Hsp40 21:
2.04
GRMZM2G071996
Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
Gene Model: March 14th, 2020
3 months agodnaJ53 DnaJ/Hsp40 53:
5.04
GRMZM2G039089
Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
Gene Model: May 18th, 2020
3 months agodnaJ48 DnaJ/Hsp40 48:
5.02
GRMZM2G129700
Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
Gene Model: May 4th, 2020
3 months agodnaJ51 DnaJ/Hsp40 51:
5.03
GRMZM5G862277
Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
Gene Model: May 13th, 2022
3 months agodnaJ92 DnaJ/Hsp40 92:
 
GRMZM5G898471
Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
Gene Model: August 4th, 2020
3 months agodnaJ58 DnaJ/Hsp40 58:
5.08
GRMZM2G092632
Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
Gene Model: May 25th, 2020
3 months agodnaJ91 DnaJ/Hsp40 91:
9.05
GRMZM2G134476
Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
Gene Model: June 25th, 2020
3 months agodnaJ98 DnaJ/Hsp40 98:
10.04
   Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
3 months agodnaJ73 DnaJ/Hsp40 73:
7.04
GRMZM2G382106
Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
Variation: March 31st, 2005
Gene Model: February 6th, 2019
3 months agodnaJ5 DnaJ/Hsp40 5:
1.04
GRMZM2G382717
Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
Gene Model: January 24th, 2021
3 months agodnaJ31 DnaJ/Hsp40 31:
2.08
GRMZM5G812660
Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
Gene Model: March 22nd, 2020
3 months agodnaJ59 DnaJ/Hsp40 59:
6.01
GRMZM2G406268
Cao, LR et al. 2024. Comprehensive Analysis of the DnaJ/HSP40 Gene Family in Maize (Zea mays L.) Reveals that ZmDnaJ96 Enhances Abiotic Stress Tolerance J Plant Growth Reg. :doi: 10.1007/s00344-023-11206-6.     Reference: January 19th, 2024
Gene Product: September 1st, 2003
Gene Model: July 9th, 2020
3 months agowakl39 wall associated kinase like39:
8.01
GRMZM2G079219
Zhong, T et al. 2024. The ZmWAKL–ZmWIK–ZmBLK1–ZmRBOH4 module provides quantitative resistance to gray leaf spot in maize Nature Genetics. :doi: 10.1038/s41588-023-01644-z.     Reference: January 18th, 2024
Gene Product: December 7th, 2023
Gene Model: July 9th, 2021
3 months agorrb3 retinoblastoma family3:
 
GRMZM2G033828
Ledesma, A et al. 2023. Genome-wide association analysis of plant architecture traits using doubled haploid lines derived from different cycles of the Iowa Stiff Stalk Synthetic maize population. Frontiers in Plant Science. 14:1294507.     Reference: January 18th, 2024
Variation: January 22nd, 2021
Gene Model: April 17th, 2015
3 months agoca5p12 CCAAT-HAP5-transcription factor 512:
 
   Ledesma, A et al. 2023. Genome-wide association analysis of plant architecture traits using doubled haploid lines derived from different cycles of the Iowa Stiff Stalk Synthetic maize population. Frontiers in Plant Science. 14:1294507.     Reference: January 18th, 2024
Gene Product: August 9th, 2016
3 months agosbp23 SBP-transcription factor 23:
 
   Ledesma, A et al. 2023. Genome-wide association analysis of plant architecture traits using doubled haploid lines derived from different cycles of the Iowa Stiff Stalk Synthetic maize population. Frontiers in Plant Science. 14:1294507.     Reference: January 18th, 2024
Gene Product: July 5th, 2019
3 months agocol16 C2C2-CO-like-transcription factor 16:
1.06
GRMZM2G159996
Ledesma, A et al. 2023. Genome-wide association analysis of plant architecture traits using doubled haploid lines derived from different cycles of the Iowa Stiff Stalk Synthetic maize population. Frontiers in Plant Science. 14:1294507.     Reference: January 18th, 2024
Gene Product: June 18th, 2018
Variation: December 7th, 2016
Gene Model: December 7th, 2016
3 months agoupl1 ubiquitin-protein ligase1:
2.07
GRMZM2G080439
Ledesma, A et al. 2023. Genome-wide association analysis of plant architecture traits using doubled haploid lines derived from different cycles of the Iowa Stiff Stalk Synthetic maize population. Frontiers in Plant Science. 14:1294507.     Reference: January 18th, 2024
Gene Product: November 26th, 2019
Gene Model: February 14th, 2018
3 months agopap15 purple acid phosphatase15:
1.06
GRMZM2G136453
Ledesma, A et al. 2023. Genome-wide association analysis of plant architecture traits using doubled haploid lines derived from different cycles of the Iowa Stiff Stalk Synthetic maize population. Frontiers in Plant Science. 14:1294507.     Reference: January 18th, 2024
Gene Product: November 21st, 2018
Gene Model: June 21st, 2017
3 months agogpx3 glycerophosphodiester phosphodiesterase3:
1.06
GRMZM2G064962
Ledesma, A et al. 2023. Genome-wide association analysis of plant architecture traits using doubled haploid lines derived from different cycles of the Iowa Stiff Stalk Synthetic maize population. Frontiers in Plant Science. 14:1294507.     Reference: January 18th, 2024
Gene Product: June 24th, 2020
Gene Model: February 10th, 2020
3 months agosweet11a sugars will eventually be exported transporter11:
1.06
GRMZM2G368827
Ledesma, A et al. 2023. Genome-wide association analysis of plant architecture traits using doubled haploid lines derived from different cycles of the Iowa Stiff Stalk Synthetic maize population. Frontiers in Plant Science. 14:1294507.     Reference: January 18th, 2024
Gene Product: November 4th, 2015
Gene Model: November 3rd, 2015
3 months agopk5 protein kinase5:
 
GRMZM2G144042
Zhong, T et al. 2024. The ZmWAKL–ZmWIK–ZmBLK1–ZmRBOH4 module provides quantitative resistance to gray leaf spot in maize Nature Genetics. :doi: 10.1038/s41588-023-01644-z.     Reference: January 18th, 2024
Gene Product: July 10th, 2019
Gene Model: October 10th, 2020
3 months agoblk1 bik1-like kinase1:
1.11
   Zhong, T et al. 2024. The ZmWAKL–ZmWIK–ZmBLK1–ZmRBOH4 module provides quantitative resistance to gray leaf spot in maize Nature Genetics. :doi: 10.1038/s41588-023-01644-z.     Reference: January 18th, 2024
Gene Product: July 10th, 2019
Variation: September 25th, 2007
3 months agopat4 protein S-acyltransferase4:
1.06
GRMZM2G068657
Ledesma, A et al. 2023. Genome-wide association analysis of plant architecture traits using doubled haploid lines derived from different cycles of the Iowa Stiff Stalk Synthetic maize population. Frontiers in Plant Science. 14:1294507.     Reference: January 18th, 2024
Gene Product: February 26th, 2022
Variation: March 31st, 2005
Gene Model: February 14th, 2019
3 months agoZm00001d026578  :
 
   Li, CX et al. 2024. GWAS analysis reveals candidate genes associated with dense tolerance (ear leaf structure) in maize (Zea mays L.) J Integr Agric. :doi: 10.1016/j.jia.2024.01.023.     Reference: January 17th, 2024
Gene Product: September 1st, 2003
3 months agothx65 Trihelix-transcription factor 65:
 
   Chenglin Zou et al. 2024. Physiological Characteristic Changes and Transcriptome Analysis of Maize (Zea mays L.) Roots under Drought Stress Int J Genomics. 2024:5681174.     Reference: January 17th, 2024
Gene Product: November 9th, 2021
3 months agopdc2 pyruvate decarboxylase2:
8.02
   Li, CX et al. 2024. GWAS analysis reveals candidate genes associated with dense tolerance (ear leaf structure) in maize (Zea mays L.) J Integr Agric. :doi: 10.1016/j.jia.2024.01.023.     Reference: January 17th, 2024
Gene Product: September 1st, 2003
Variation: March 30th, 2007
3 months agoabi48 ABI3-VP1-transcription factor 48:
 
   Chenglin Zou et al. 2024. Physiological Characteristic Changes and Transcriptome Analysis of Maize (Zea mays L.) Roots under Drought Stress Int J Genomics. 2024:5681174.     Reference: January 17th, 2024
Gene Product: January 29th, 2022
3 months agohsftf28 HSF-transcription factor 28:
 
   Chenglin Zou et al. 2024. Physiological Characteristic Changes and Transcriptome Analysis of Maize (Zea mays L.) Roots under Drought Stress Int J Genomics. 2024:5681174.     Reference: January 17th, 2024
Gene Product: May 15th, 2020
3 months agomrpa27 multidrug resistance associated protein27:
 
   Kun Zhang et al. 2024. Root Morphological Identification and Candidate Gene Discovery of Maize Inbred Lines at Seedling Stage J Plant Genet Resour. 25:84-96.     Reference: January 16th, 2024
Gene Product: July 11th, 2019
3 months agomate13 multidrug and toxic compound extrusion13:
 
   Kun Zhang et al. 2024. Root Morphological Identification and Candidate Gene Discovery of Maize Inbred Lines at Seedling Stage J Plant Genet Resour. 25:84-96.     Reference: January 16th, 2024
Gene Product: August 17th, 2015
3 months agohsf1 hairy sheath frayed1:
5.06 - 5.07
GRMZM2G151223
Bocianowski, J 2024. Using NGS Technology and Association Mapping to Identify Candidate Genes Associated with Fusarium Stalk Rot Resistance Genes. 15:106.     Reference: January 16th, 2024
Gene Product: May 20th, 2016
Variation: August 23rd, 2019
Gene Model: August 23rd, 2019
3 months agoarftf27 ARF-transcription factor 27:
 
   Kun Zhang et al. 2024. Root Morphological Identification and Candidate Gene Discovery of Maize Inbred Lines at Seedling Stage J Plant Genet Resour. 25:84-96.     Reference: January 16th, 2024
Gene Product: January 29th, 2022
3 months agogrp3 glycine-rich protein3:
5.03
   Bocianowski, J 2024. Using NGS Technology and Association Mapping to Identify Candidate Genes Associated with Fusarium Stalk Rot Resistance Genes. 15:106.     Reference: January 16th, 2024
Gene Product: September 18th, 2020
Variation: September 1st, 2003
3 months agomate11 multidrug and toxic compound extrusion11:
1.08
GRMZM5G800723
Kun Zhang et al. 2024. Root Morphological Identification and Candidate Gene Discovery of Maize Inbred Lines at Seedling Stage J Plant Genet Resour. 25:84-96.     Reference: January 16th, 2024
Gene Product: August 17th, 2015
Gene Model: March 23rd, 2022
3 months agonas9 nicotianamine synthase9:
 
GRMZM2G124785
Kun Zhang et al. 2024. Root Morphological Identification and Candidate Gene Discovery of Maize Inbred Lines at Seedling Stage J Plant Genet Resour. 25:84-96.     Reference: January 16th, 2024
Gene Product: July 26th, 2013
Gene Model: July 26th, 2013
3 months agocpps3 copalyl diphosphate synthase3:
 
GRMZM2G068808
Kun Zhang et al. 2024. Root Morphological Identification and Candidate Gene Discovery of Maize Inbred Lines at Seedling Stage J Plant Genet Resour. 25:84-96.     Reference: January 16th, 2024
Gene Product: August 16th, 2012
Gene Model: October 27th, 2014
3 months agogpat12 glycerol-3-phosphate acyltransferase12:
 
GRMZM2G166176
Kun Zhang et al. 2024. Root Morphological Identification and Candidate Gene Discovery of Maize Inbred Lines at Seedling Stage J Plant Genet Resour. 25:84-96.     Reference: January 16th, 2024
Gene Product: March 25th, 2019
Gene Model: March 25th, 2019
3 months agomrpa10 multidrug resistance protein associated10:
 
AC234203.1_FG004
Bocianowski, J 2024. Using NGS Technology and Association Mapping to Identify Candidate Genes Associated with Fusarium Stalk Rot Resistance Genes. 15:106.     Reference: January 16th, 2024
Gene Product: July 11th, 2019
Gene Model: July 12th, 2019
3 months agoysl13 yellow stripe-like transporter13:
 
GRMZM2G024196
Kun Zhang et al. 2024. Root Morphological Identification and Candidate Gene Discovery of Maize Inbred Lines at Seedling Stage J Plant Genet Resour. 25:84-96.     Reference: January 16th, 2024
Gene Product: September 1st, 2003
Gene Model: July 8th, 2020
3 months agochls3 chalcone synthase3:
 
GRMZM2G175812
Kun Zhang et al. 2024. Root Morphological Identification and Candidate Gene Discovery of Maize Inbred Lines at Seedling Stage J Plant Genet Resour. 25:84-96.     Reference: January 16th, 2024
Gene Product: September 1st, 2003
Gene Model: December 20th, 2020
3 months agobsk5 brassinosteroid-signaling kinase5:
 
GRMZM2G382104
Bocianowski, J 2024. Using NGS Technology and Association Mapping to Identify Candidate Genes Associated with Fusarium Stalk Rot Resistance Genes. 15:106.     Reference: January 16th, 2024
Gene Product: May 13th, 2014
Gene Model: April 20th, 2021
3 months agochn28 chitinase28:
 
GRMZM2G057766
Sadaf Anwaar et al. 2024. Cloning of maize chitinase 1 gene and its expression in genetically transformed rice to confer resistance against rice blast caused by Pyricularia oryzae PLoS One. 19:e0291939.     Reference: January 16th, 2024
Gene Product: May 31st, 2021
Gene Model: May 31st, 2021
3 months agosrt101 sirtuin 101:
10.04
GRMZM2G058573
Kun Zhang et al. 2024. Root Morphological Identification and Candidate Gene Discovery of Maize Inbred Lines at Seedling Stage J Plant Genet Resour. 25:84-96.     Reference: January 16th, 2024
Gene Product: February 12th, 2020
Variation: February 12th, 2020
Gene Model: February 12th, 2020
3 months agocka2 CK2 protein kinase alpha 2:
1.10
   Kun Zhang et al. 2024. Root Morphological Identification and Candidate Gene Discovery of Maize Inbred Lines at Seedling Stage J Plant Genet Resour. 25:84-96.     Reference: January 16th, 2024
Gene Product: December 3rd, 2013
Variation: November 16th, 2012
3 months agobm4 brown midrib4:
9.08
GRMZM2G393334
Maksim Suslov et al. 2024. Real-Time Dynamics of Water Transport in the Roots of Intact Maize Plants in Response to Water Stress: The Role of Aquaporins and the Contribution of Different Water Transport Pathways Cells. 13:154.     Reference: January 15th, 2024
Gene Product: December 17th, 2014
Variation: December 17th, 2014
Gene Model: December 17th, 2014
3 months agorpp9 resistance to Puccinia polysora and Puccinia sorghi9:
10.01
   He, B et al. 2024. Maize Improvement Based on Modern Breeding Strategies: Progress and Perspective ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00427.     Reference: January 15th, 2024
Gene Product: January 17th, 2022
Variation: January 17th, 2022
3 months agosod3 superoxide dismutase3:
6.05
   Wang, YH et al. 2024. Physiological Mechanisms Underlying Tassel Symptom Formation in Maize Infected with Sporisorium reilianum Plants. 13:238.     Reference: January 15th, 2024
Gene Product: October 4th, 2021
Variation: July 10th, 2015
3 months agotip1 tonoplast intrinsic protein1:
10.04
GRMZM2G168439
Maksim Suslov et al. 2024. Real-Time Dynamics of Water Transport in the Roots of Intact Maize Plants in Response to Water Stress: The Role of Aquaporins and the Contribution of Different Water Transport Pathways Cells. 13:154.     Reference: January 15th, 2024
Gene Product: January 27th, 2022
Variation: September 1st, 2003
Gene Model: February 5th, 2015
3 months agopip1a plasma membrane intrinsic protein1:
2.03
GRMZM2G174807
Maksim Suslov et al. 2024. Real-Time Dynamics of Water Transport in the Roots of Intact Maize Plants in Response to Water Stress: The Role of Aquaporins and the Contribution of Different Water Transport Pathways Cells. 13:154.     Reference: January 15th, 2024
Gene Product: January 27th, 2022
Variation: June 6th, 2005
Gene Model: October 29th, 2014
3 months agopip1d plasma membrane intrinsic protein1:
4.06
GRMZM2G392975
Virginia Protto et al. 2024. Primary, seminal and lateral roots of maize show type-specific growth and hydraulic responses to water deficit. Plant Physiol. :doi: 10.1093/plphys/kiad675.     Reference: January 15th, 2024
Gene Product: January 27th, 2022
Variation: October 29th, 2014
Gene Model: October 29th, 2014
3 months agopip1e plasma membrane intrinsic protein1:
4.06
   Maksim Suslov et al. 2024. Real-Time Dynamics of Water Transport in the Roots of Intact Maize Plants in Response to Water Stress: The Role of Aquaporins and the Contribution of Different Water Transport Pathways Cells. 13:154.     Reference: January 15th, 2024
Gene Product: January 27th, 2022
Variation: October 24th, 2014
3 months agopip1f plasma membrane intrinsic protein1:
9.01
GRMZM2G136032
Virginia Protto et al. 2024. Primary, seminal and lateral roots of maize show type-specific growth and hydraulic responses to water deficit. Plant Physiol. :doi: 10.1093/plphys/kiad675.     Reference: January 15th, 2024
Gene Product: January 27th, 2022
Variation: September 1st, 2003
Gene Model: January 25th, 2020
3 months agopip2e plasma membrane intrinsic protein2:
7.02
   Maksim Suslov et al. 2024. Real-Time Dynamics of Water Transport in the Roots of Intact Maize Plants in Response to Water Stress: The Role of Aquaporins and the Contribution of Different Water Transport Pathways Cells. 13:154.     Reference: January 15th, 2024
Gene Product: September 1st, 2003
Variation: June 6th, 2005
3 months agopip2b plasma membrane intrinsic protein2:
2.06
   Maksim Suslov et al. 2024. Real-Time Dynamics of Water Transport in the Roots of Intact Maize Plants in Response to Water Stress: The Role of Aquaporins and the Contribution of Different Water Transport Pathways Cells. 13:154.     Reference: January 15th, 2024
Gene Product: September 1st, 2003
Variation: March 19th, 2013
3 months agopip2c plasma membrane intrinsic protein2:
4.06
   Maksim Suslov et al. 2024. Real-Time Dynamics of Water Transport in the Roots of Intact Maize Plants in Response to Water Stress: The Role of Aquaporins and the Contribution of Different Water Transport Pathways Cells. 13:154.     Reference: January 15th, 2024
Gene Product: September 1st, 2003
Variation: March 25th, 2013
3 months agopip2d plasma membrane intrinsic protein2:
5.05
   Maksim Suslov et al. 2024. Real-Time Dynamics of Water Transport in the Roots of Intact Maize Plants in Response to Water Stress: The Role of Aquaporins and the Contribution of Different Water Transport Pathways Cells. 13:154.     Reference: January 15th, 2024
Gene Product: September 1st, 2003
Variation: March 7th, 2007
3 months agotip2a tonoplast intrinsic protein2:
4.06
GRMZM2G027098
Maksim Suslov et al. 2024. Real-Time Dynamics of Water Transport in the Roots of Intact Maize Plants in Response to Water Stress: The Role of Aquaporins and the Contribution of Different Water Transport Pathways Cells. 13:154.     Reference: January 15th, 2024
Gene Product: January 27th, 2022
Variation: September 1st, 2003
Gene Model: February 5th, 2015
3 months agopip2g plasma membrane intrinsic protein2:
 
   Virginia Protto et al. 2024. Primary, seminal and lateral roots of maize show type-specific growth and hydraulic responses to water deficit. Plant Physiol. :doi: 10.1093/plphys/kiad675.     Reference: January 15th, 2024
Gene Product: September 1st, 2003
Variation: September 1st, 2003
3 months agouce4 ubiquitin conjugating enzyme4:
2.01
   Maksim Suslov et al. 2024. Real-Time Dynamics of Water Transport in the Roots of Intact Maize Plants in Response to Water Stress: The Role of Aquaporins and the Contribution of Different Water Transport Pathways Cells. 13:154.     Reference: January 15th, 2024
Gene Product: December 19th, 2019
Variation: July 29th, 2004
3 months agozar8 Zea mays ARGOS8:
 
GRMZM2G354338
He, B et al. 2024. Maize Improvement Based on Modern Breeding Strategies: Progress and Perspective ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00427.     Reference: January 15th, 2024
Gene Product: August 3rd, 2015
Gene Model: August 1st, 2015
3 months agomyb72 MYB-transcription factor 72:
2.04
   Wu, HY et al. 2023. Identification and characterization of waterlogging-responsive genes in the parental line of maize hybrid An’nong 876 Genet Mol Biol. 46:e20230026.     Reference: January 12th, 2024
Variation: September 25th, 2007
3 months agomybr96 MYB-related-transcription factor 96:
5.03
   Wu, HY et al. 2023. Identification and characterization of waterlogging-responsive genes in the parental line of maize hybrid An’nong 876 Genet Mol Biol. 46:e20230026.     Reference: January 12th, 2024
Variation: September 25th, 2007
3 months agocol4 C2C2-CO-like-transcription factor 4:
 
   Wu, HY et al. 2023. Identification and characterization of waterlogging-responsive genes in the parental line of maize hybrid An’nong 876 Genet Mol Biol. 46:e20230026.     Reference: January 12th, 2024
Gene Product: June 18th, 2018
3 months agopap25 purple acid phosphatase25:
 
   Wu, HY et al. 2023. Identification and characterization of waterlogging-responsive genes in the parental line of maize hybrid An’nong 876 Genet Mol Biol. 46:e20230026.     Reference: January 12th, 2024
Gene Product: November 21st, 2018
3 months agopap28 purple acid phosphatase28:
 
   Wu, HY et al. 2023. Identification and characterization of waterlogging-responsive genes in the parental line of maize hybrid An’nong 876 Genet Mol Biol. 46:e20230026.     Reference: January 12th, 2024
Gene Product: November 21st, 2018
3 months agohsftf25 HSF-transcription factor 25:
 
   Wu, HY et al. 2023. Identification and characterization of waterlogging-responsive genes in the parental line of maize hybrid An’nong 876 Genet Mol Biol. 46:e20230026.     Reference: January 12th, 2024
Gene Product: May 15th, 2020
3 months agonlp17 NLP-transcription factor 17:
 
   Wu, HY et al. 2023. Identification and characterization of waterlogging-responsive genes in the parental line of maize hybrid An’nong 876 Genet Mol Biol. 46:e20230026.     Reference: January 12th, 2024
Gene Product: December 3rd, 2019
3 months agozhd6 ZF-HD-transcription factor 6:
 
   Wu, HY et al. 2023. Identification and characterization of waterlogging-responsive genes in the parental line of maize hybrid An’nong 876 Genet Mol Biol. 46:e20230026.     Reference: January 12th, 2024
Gene Product: August 24th, 2022
3 months agobhlh96 bHLH-transcription factor 96:
 
   Wu, HY et al. 2023. Identification and characterization of waterlogging-responsive genes in the parental line of maize hybrid An’nong 876 Genet Mol Biol. 46:e20230026.   AT3G26744 (TAIR) Reference: January 12th, 2024
Gene Product: September 14th, 2016
3 months agodcl4 dicer-like4:
1.09
GRMZM2G050869
Eliandro Espindula et al. 2024. Maize—Azospirillum brasilense interaction: accessing maize’s miRNA expression under the effect of an inhibitor of indole-3-acetic acid production by the plant Braz J Microbiol. :doi: 10.1007/s42770-023-01236-3.     Reference: January 12th, 2024
Gene Product: September 5th, 2006
Variation: July 27th, 2015
Gene Model: July 27th, 2015
3 months agocyp26 cytochrome P-450 26:
 
GRMZM2G087875
Wu, HY et al. 2023. Identification and characterization of waterlogging-responsive genes in the parental line of maize hybrid An’nong 876 Genet Mol Biol. 46:e20230026.     Reference: January 12th, 2024
Gene Product: December 30th, 2022
Gene Model: November 30th, 2018
3 months agonpf10 nitrate transporter/peptide transporter family10:
 
GRMZM2G044851
Wu, HY et al. 2023. Identification and characterization of waterlogging-responsive genes in the parental line of maize hybrid An’nong 876 Genet Mol Biol. 46:e20230026.     Reference: January 12th, 2024
Gene Product: September 1st, 2003
Gene Model: May 21st, 2019
3 months agolaz6 lazarus ortholog6:
 
GRMZM2G071688
Wu, HY et al. 2023. Identification and characterization of waterlogging-responsive genes in the parental line of maize hybrid An’nong 876 Genet Mol Biol. 46:e20230026.     Reference: January 12th, 2024
Gene Product: July 27th, 2019
Gene Model: July 27th, 2019
3 months agonlp15 NLP-transcription factor 15:
5.03
GRMZM2G042278
Wu, HY et al. 2023. Identification and characterization of waterlogging-responsive genes in the parental line of maize hybrid An’nong 876 Genet Mol Biol. 46:e20230026.     Reference: January 12th, 2024
Gene Product: December 3rd, 2019
Variation: December 3rd, 2019
Gene Model: October 7th, 2017
3 months agofae2 fatty acid elongase2:
9.03
   Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Variation: January 9th, 2019
3 months agoad1 adherent1:
1.08
GRMZM2G167438
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Gene Product: November 1st, 2018
Variation: February 13th, 2020
Gene Model: February 13th, 2020
3 months agogl4 glossy4:
4.06
GRMZM2G003501
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Gene Product: November 1st, 2018
Variation: November 1st, 2018
Gene Model: October 31st, 2018
3 months agokcs15 3-ketoacyl-CoA synthase15:
1.08
GRMZM2G162508
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Gene Product: November 1st, 2018
Variation: November 4th, 2016
Gene Model: November 4th, 2016
3 months agokcs31 3-ketoacyl-CoA synthase31:
5.03
GRMZM2G137694
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Gene Product: November 1st, 2018
Variation: September 1st, 2003
Gene Model: June 23rd, 2018
3 months agokcs35 3-ketoacyl-CoA synthase35:
3.09
GRMZM2G409312
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Gene Product: November 1st, 2018
Gene Model: April 10th, 2020
3 months agokcs19 3-ketoacyl-CoA synthase19:
 
GRMZM2G062718
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Gene Product: November 1st, 2018
Gene Model: February 13th, 2020
3 months agokcs9 3-ketoacyl-CoA synthase9:
 
GRMZM2G104626
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Gene Product: November 1st, 2018
Gene Model: February 13th, 2020
3 months agokcs11 3-ketoacyl-CoA synthase11:
 
GRMZM2G149636
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Gene Product: November 1st, 2018
Gene Model: February 13th, 2020
3 months agokcs18 3-ketoacyl-CoA synthase18:
 
GRMZM2G156620
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Gene Product: November 1st, 2018
Gene Model: February 13th, 2020
3 months agokcs16 3-ketoacyl-CoA synthase16:
 
GRMZM2G160417
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Gene Product: November 1st, 2018
Gene Model: February 13th, 2020
3 months agokcs28 3-ketoacyl-CoA synthase28:
 
GRMZM2G164974
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Gene Product: November 1st, 2018
Gene Model: February 13th, 2020
3 months agokcs24 3-ketoacyl-CoA synthase24:
 
GRMZM5G894016
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Gene Product: November 1st, 2018
Variation: January 11th, 2024
Gene Model: February 13th, 2020
3 months agokcs36 3-ketoacyl-CoA synthase36:
 
AC233893.1_FG003
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Gene Product: November 1st, 2018
Gene Model: May 19th, 2020
3 months agokcs34 3-ketoacyl-CoA synthase34:
 
GRMZM2G060481
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Gene Product: November 1st, 2018
Gene Model: May 19th, 2020
3 months agokcs29 3-ketoacyl-CoA synthase29:
 
GRMZM2G569948
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Gene Product: November 1st, 2018
Gene Model: March 23rd, 2022
3 months agokcs30 3-ketoacyl-CoA synthase30:
 
GRMZM2G031790
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.   AT1G04220 (TAIR) Reference: January 11th, 2024
Gene Product: November 1st, 2018
Gene Model: March 23rd, 2022
3 months agokcs33 3-ketoacyl-CoA synthase33:
 
GRMZM2G168304
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Gene Product: November 1st, 2018
Gene Model: March 23rd, 2022
3 months agokcs37 3-ketoacyl-CoA synthase37:
 
GRMZM2G032095
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Gene Product: November 1st, 2018
Variation: January 11th, 2024
Gene Model: March 23rd, 2022
3 months agokcs38 3-ketoacyl-CoA synthase38:
 
GRMZM2G020740
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Gene Product: November 1st, 2018
Gene Model: March 23rd, 2022
3 months agokcs39 3-ketoacyl-CoA synthase39:
 
GRMZM2G003138
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Gene Product: November 1st, 2018
Gene Model: March 23rd, 2022
3 months agokcs40 3-ketoacyl-CoA synthase40:
 
GRMZM2G151476
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Gene Product: November 1st, 2018
Gene Model: March 23rd, 2022
3 months agokcs1 3-ketoacyl-CoA synthase1:
8.03
GRMZM2G393897
Stenback, KE et al. 2022. Modifying the yeast very long chain fatty acid biosynthetic machinery by the expression of plant 3-ketoacyl CoA synthase isozymes. Sci. Rep.. 12:13235.     Reference: January 11th, 2024
Gene Product: November 1st, 2018
Gene Model: March 12th, 2019
3 months agogl15 glossy15:
9.03
   Poethig, RS et al. 2024. Temporal regulation of vegetative phase change in plants. Dev Cell. 59:4-19.     Reference: January 10th, 2024
Variation: October 5th, 2012
3 months agotp1 teopod1:
7.03
   Poethig, RS et al. 2024. Temporal regulation of vegetative phase change in plants. Dev Cell. 59:4-19.     Reference: January 10th, 2024
Variation: October 24th, 2005
3 months agotp2 teopod2:
10.04 - 10.05
   Poethig, RS et al. 2024. Temporal regulation of vegetative phase change in plants. Dev Cell. 59:4-19.     Reference: January 10th, 2024
Variation: October 24th, 2005
3 months agots4 tasselseed4:
3.05 - 3.05
   Poethig, RS et al. 2024. Temporal regulation of vegetative phase change in plants. Dev Cell. 59:4-19.     Reference: January 10th, 2024
Gene Product: June 17th, 2016
Variation: October 25th, 2023
3 months agowrky111 WRKY-transcription factor 111:
 
   Niharika Sharma et al. 2024. Molecular Basis and Engineering Strategies for Transcription Factor-Mediated Reproductive-Stage Heat Tolerance in Crop Plants Agronomy. 14:159.     Reference: January 10th, 2024
Gene Product: July 24th, 2017
Variation: July 24th, 2017
4 months agotcptf24 TCP-transcription factor 24:
 
   Xuanlong Lv et al. 2024. Heat stress and sexual reproduction in maize: unveiling the most pivotal factors and the biggest opportunities. J Exp Bot. :doi: 10.1093/jxb/erad506.     Reference: January 8th, 2024
Gene Product: September 27th, 2019
4 months agotcptf7 TCP-transcription factor 7:
 
   Xuanlong Lv et al. 2024. Heat stress and sexual reproduction in maize: unveiling the most pivotal factors and the biggest opportunities. J Exp Bot. :doi: 10.1093/jxb/erad506.     Reference: January 8th, 2024
Gene Product: September 27th, 2019
4 months agotrx2 thioredoxin2:
 
GRMZM2G082886
Xuanlong Lv et al. 2024. Heat stress and sexual reproduction in maize: unveiling the most pivotal factors and the biggest opportunities. J Exp Bot. :doi: 10.1093/jxb/erad506.     Reference: January 8th, 2024
Gene Product: August 31st, 2020
Gene Model: August 31st, 2020
4 months agoea1 egg apparatus1:
7.04
   Xuanlong Lv et al. 2024. Heat stress and sexual reproduction in maize: unveiling the most pivotal factors and the biggest opportunities. J Exp Bot. :doi: 10.1093/jxb/erad506.     Reference: January 8th, 2024
Gene Product: December 4th, 2021
4 months agoaldh31 aldehyde dehydrogenase31:
 
   Zhang, SW et al. 2024. Genome-Wide Characterization of the Aldehyde Dehydrogenase Gene Superfamily in Maize and Its Potential Role in Anther Development ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00430.     Reference: January 5th, 2024
Gene Product: June 28th, 2005
4 months agoaldh35 aldehyde dehydrogenase35:
 
   Zhang, SW et al. 2024. Genome-Wide Characterization of the Aldehyde Dehydrogenase Gene Superfamily in Maize and Its Potential Role in Anther Development ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00430.     Reference: January 5th, 2024
Gene Product: June 28th, 2005
4 months agoaldh32 aldehyde dehydrogenase32:
 
   Zhang, SW et al. 2024. Genome-Wide Characterization of the Aldehyde Dehydrogenase Gene Superfamily in Maize and Its Potential Role in Anther Development ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00430.     Reference: January 5th, 2024
Gene Product: January 5th, 2024
4 months agoaldh22 aldehyde dehydrogenase22:
7.06
GRMZM2G135341
Zhang, SW et al. 2024. Genome-Wide Characterization of the Aldehyde Dehydrogenase Gene Superfamily in Maize and Its Potential Role in Anther Development ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00430.     Reference: January 5th, 2024
Gene Product: January 5th, 2024
Variation: April 11th, 2017
Gene Model: April 11th, 2017
4 months agogpn1 glyceraldehyde-3-phosphate deHaseN1:
4.05
GRMZM2G035268
Zhang, SW et al. 2024. Genome-Wide Characterization of the Aldehyde Dehydrogenase Gene Superfamily in Maize and Its Potential Role in Anther Development ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00430.     Reference: January 5th, 2024
Gene Product: September 1st, 2003
Variation: June 8th, 2010
Gene Model: July 27th, 2016
4 months agomis1 putative aldehyde dehydrogenase MIS1:
 
GRMZM2G090087
Zhang, SW et al. 2024. Genome-Wide Characterization of the Aldehyde Dehydrogenase Gene Superfamily in Maize and Its Potential Role in Anther Development ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00430.     Reference: January 5th, 2024
Gene Product: January 5th, 2024
Variation: January 15th, 2011
Gene Model: January 22nd, 2016
4 months agoaldh8 aldehyde dehydrogenase8:
 
GRMZM2G325115
Zhang, SW et al. 2024. Genome-Wide Characterization of the Aldehyde Dehydrogenase Gene Superfamily in Maize and Its Potential Role in Anther Development ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00430.     Reference: January 5th, 2024
Gene Product: January 5th, 2024
Gene Model: October 2nd, 2019
4 months agoaldh14 aldehyde dehydrogenase14:
 
GRMZM2G060800
Zhang, SW et al. 2024. Genome-Wide Characterization of the Aldehyde Dehydrogenase Gene Superfamily in Maize and Its Potential Role in Anther Development ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00430.     Reference: January 5th, 2024
Gene Product: January 5th, 2024
Gene Model: October 2nd, 2019
4 months agoaldh15 aldehyde dehydrogenase15:
 
GRMZM2G119482
Zhang, SW et al. 2024. Genome-Wide Characterization of the Aldehyde Dehydrogenase Gene Superfamily in Maize and Its Potential Role in Anther Development ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00430.     Reference: January 5th, 2024
Gene Product: January 5th, 2024
Gene Model: October 2nd, 2019
4 months agoaldh16 aldehyde dehydrogenase16:
 
GRMZM2G128114
Zhang, SW et al. 2024. Genome-Wide Characterization of the Aldehyde Dehydrogenase Gene Superfamily in Maize and Its Potential Role in Anther Development ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00430.     Reference: January 5th, 2024
Gene Product: January 5th, 2024
Gene Model: October 2nd, 2019
4 months agoaldh19 aldehyde dehydrogenase19:
 
GRMZM2G365440
Zhang, SW et al. 2024. Genome-Wide Characterization of the Aldehyde Dehydrogenase Gene Superfamily in Maize and Its Potential Role in Anther Development ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00430.     Reference: January 5th, 2024
Gene Product: January 5th, 2024
Gene Model: October 2nd, 2019
4 months agoaldh25 aldehyde dehydrogenase25:
 
GRMZM2G103546
Zhang, SW et al. 2024. Genome-Wide Characterization of the Aldehyde Dehydrogenase Gene Superfamily in Maize and Its Potential Role in Anther Development ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00430.     Reference: January 5th, 2024
Gene Product: January 5th, 2024
Gene Model: October 2nd, 2019
4 months agoaldh28 aldehyde dehydrogenase28:
 
GRMZM2G354187
Zhang, SW et al. 2024. Genome-Wide Characterization of the Aldehyde Dehydrogenase Gene Superfamily in Maize and Its Potential Role in Anther Development ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00430.     Reference: January 5th, 2024
Gene Product: January 5th, 2024
Gene Model: October 2nd, 2019
4 months agoaldh10 aldehyde dehydrogenase10:
 
GRMZM5G811837
Zhou, ML et al. 2012. Funct Integr Genomics 12:683-691     Reference: October 2nd, 2019
Gene Product: January 5th, 2024
Gene Model: October 2nd, 2019
4 months agoaldh12 aldehyde dehydrogenase12:
 
GRMZM5G820733
Zhang, SW et al. 2024. Genome-Wide Characterization of the Aldehyde Dehydrogenase Gene Superfamily in Maize and Its Potential Role in Anther Development ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00430.     Reference: January 5th, 2024
Gene Product: January 5th, 2024
Gene Model: October 2nd, 2019
4 months agoaldh20 aldehyde dehydrogenase20:
 
GRMZM2G130440
Zhang, SW et al. 2024. Genome-Wide Characterization of the Aldehyde Dehydrogenase Gene Superfamily in Maize and Its Potential Role in Anther Development ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00430.     Reference: January 5th, 2024
Gene Product: January 5th, 2024
Gene Model: October 2nd, 2019
4 months agoaldh21 aldehyde dehydrogenase21:
7.02
GRMZM2G108076
Zhang, SW et al. 2024. Genome-Wide Characterization of the Aldehyde Dehydrogenase Gene Superfamily in Maize and Its Potential Role in Anther Development ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00430.     Reference: January 5th, 2024
Gene Product: January 5th, 2024
Gene Model: October 2nd, 2019
4 months agoLOC100383797  :
 
   Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: February 1st, 2023
4 months agoflr10 feronia-like receptor10:
 
   Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: July 10th, 2019
4 months agoflr7 feronia-like receptor7:
 
   Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: July 10th, 2019
4 months agoZm00001d034240  :
 
   Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: February 1st, 2023
4 months agoflr4 feronia-like receptor4:
 
   Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: July 10th, 2019
4 months agoflr5 feronia-like receptor5:
 
   Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: July 10th, 2019
4 months agoZm00001d015971  :
 
   Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: February 1st, 2023
4 months agoZm00001d033652  :
 
   Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: February 1st, 2023
4 months agoZm00001d022066  :
 
   Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: February 1st, 2023
4 months agoZm00001d048822  :
 
   Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: February 1st, 2023
4 months agoZm00001d045013  :
 
   Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: February 1st, 2023
4 months agoZm00001d013162  :
 
   Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: February 1st, 2023
4 months agoZm00001d006420  :
 
   Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: February 1st, 2023
4 months agoZm00001d014971  :
 
   Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: February 1st, 2023
4 months agoZm00001d014063  :
 
   Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: February 1st, 2023
4 months agoZm00001d015891  :
 
   Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: February 1st, 2023
4 months agopza02462  :
5.01
   Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: February 1st, 2023
Variation: September 25th, 2007
4 months agoer3 erecta-like3:
9.03
   Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: July 10th, 2019
4 months agobnlg2271  :
7.03
GRMZM2G313643
Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: February 1st, 2023
Variation: September 1st, 2003
Gene Model: September 10th, 2018
4 months agoeno1 enolase1:
9.02
   Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: September 1st, 2003
Variation: September 25th, 2007
4 months agoumc83a  :
1.08
GRMZM2G001812
Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: February 1st, 2023
Gene Model: January 31st, 2017
4 months agommp150  :
6.05
GRMZM2G095588
Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: February 1st, 2023
Gene Model: August 29th, 2018
4 months agohdt103 histone deacetylase103:
6.07
GRMZM2G159032
Wang, XD et al. 2024. ZmHDT103 Negatively Regulates Drought Stress Tolerance in Maize Seedlings Agronomy. 14:134.     Reference: January 4th, 2024
Gene Product: February 12th, 2020
Variation: January 4th, 2024
Gene Model: July 27th, 2016
4 months agostk2 serine-threonine kinase2:
2.04
GRMZM2G179268
Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: May 13th, 2014
Gene Model: January 9th, 2017
4 months agobrl2 bri1-like receptor kinase2:
 
GRMZM2G002515
Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.   AT2G01950 (TAIR)
LOC_Os10g02500 (MSU/TIGR)
Reference: January 4th, 2024
Gene Product: February 1st, 2023
Variation: July 17th, 2015
Gene Model: July 16th, 2015
4 months agoflr6 feronia-like receptor6:
 
GRMZM2G180071
Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: July 10th, 2019
Gene Model: February 8th, 2019
4 months agoer1 erecta-like1:
 
GRMZM2G463904
Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: July 10th, 2019
Gene Model: July 10th, 2019
4 months agoflr3 feronia-like receptor3:
 
GRMZM2G042055
Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.   AT3G51550 (TAIR) Reference: January 4th, 2024
Gene Product: July 10th, 2019
Gene Model: March 17th, 2020
4 months agorlk7 receptor-like protein kinase7:
 
GRMZM2G149051
Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.   LOC_Os09g30190 (MSU/TIGR) Reference: January 4th, 2024
Gene Product: July 10th, 2019
Gene Model: November 11th, 2020
4 months agorlk2 receptor-like protein kinase2:
 
GRMZM2G039431
Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: July 10th, 2019
Gene Model: November 11th, 2020
4 months agorlk5 receptor-like protein kinase5:
 
AC233861.1_FG001
Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: July 10th, 2019
Gene Model: November 11th, 2020
4 months agoZm00001d049588  :
 
GRMZM2G039934
Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: February 1st, 2023
Gene Model: February 22nd, 2021
4 months agoflr2 feronia-like receptor2:
 
GRMZM2G100288
Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.   AT3G51550 (TAIR) Reference: January 4th, 2024
Gene Product: July 10th, 2019
Gene Model: May 21st, 2022
4 months agoer2 erecta-like2:
6.05
GRMZM5G809695
Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: July 10th, 2019
Gene Model: July 10th, 2019
4 months agoflr9 feronia-like receptor9:
9.03
   Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: July 10th, 2019
4 months agostk1 serine threonine kinase1:
9.02
   Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: May 13th, 2014
Variation: October 10th, 2018
4 months agoeno2 enolase2:
1.05
GRMZM2G048371
Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: September 1st, 2003
Variation: May 1st, 2014
Gene Model: September 5th, 2012
4 months agoflr12 feronia-like receptor12:
6.05
GRMZM5G897958
Zhu, L et al. 2024. Receptor-like kinases and their signaling cascades for plant male fertility: loyal messengers New Phytol. :doi: 10.1111/nph.19527.     Reference: January 4th, 2024
Gene Product: July 10th, 2019
Gene Model: January 11th, 2020
4 months agoa2 anthocyaninless2:
5.03
   Chen, WW et al. 2024. Genome-wide association study of kernel colour traits and mining of elite alleles from the major loci in maize BMC Plant Biology. 24:25.     Reference: January 3rd, 2024
Gene Product: June 7th, 2012
Variation: September 1st, 2003
4 months agochi3 chalcone flavanone isomerase3:
5.00
GRMZM2G119186
Chen, WW et al. 2024. Genome-wide association study of kernel colour traits and mining of elite alleles from the major loci in maize BMC Plant Biology. 24:25.     Reference: January 3rd, 2024
Gene Product: January 26th, 2021
Variation: May 13th, 2012
Gene Model: May 9th, 2012
4 months agochi1 chalcone flavanone isomerase1:
1.11
GRMZM2G155329
Chen, WW et al. 2024. Genome-wide association study of kernel colour traits and mining of elite alleles from the major loci in maize BMC Plant Biology. 24:25.     Reference: January 3rd, 2024
Gene Product: January 26th, 2021
Variation: October 10th, 2012
Gene Model: May 9th, 2012
4 months agocgt1 C-glucosyl transferase1:
 
GRMZM2G162783
Chen, WW et al. 2024. Genome-wide association study of kernel colour traits and mining of elite alleles from the major loci in maize BMC Plant Biology. 24:25.     Reference: January 3rd, 2024
Gene Product: September 24th, 2018
Gene Model: September 24th, 2018
4 months agoprp25 pathogenesis-related protein25:
 
   Bangtai Wang et al. 2024. Genome-wide association study for stalk lodging resistance related traits in maize (Zea mays L.) BMC Genomics. 25:19.     Reference: January 2nd, 2024
Gene Product: December 12th, 2022
4 months agorpn10 regulatory particle non-ATPase 10:
 
   Zhang, L et al. 2024. Genetic variation in ZmKW1 contributes to kernel weight and size in dent corn and popcorn. Plant Biotechnol J.   AT4G38630 (TAIR) Reference: January 2nd, 2024
Variation: December 22nd, 2022
4 months agoplt30 phospholipid transfer protein30:
 
   Zhang, L et al. 2024. Genetic variation in ZmKW1 contributes to kernel weight and size in dent corn and popcorn. Plant Biotechnol J.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
4 months agoZm00001eb057120  :
 
   Zhang, H et al. 2024. Reveal the kernel dehydration mechanisms in maize based on proteomic and metabolomic analysis. BMC Plant Biology. 24:15.     Reference: January 2nd, 2024
Gene Product: January 31st, 2019
4 months agoZm00001d019358  :
 
   Zainab M Almutairi 2022. In Silico Identification and Characterization of B12D Family Proteins in Viridiplantae. Evol Bioinform. 18:11769343221106795.     Reference: January 2nd, 2024
Gene Product: January 2nd, 2024
4 months agoZm00001d005500  :
 
   Zainab M Almutairi 2022. In Silico Identification and Characterization of B12D Family Proteins in Viridiplantae. Evol Bioinform. 18:11769343221106795.     Reference: January 2nd, 2024
Gene Product: January 2nd, 2024
4 months agoysl21 yellow stripe-like transporter21:
 
   Song, ZZ et al. 2024. Identification and characterization of yellow stripe-like genes in maize suggest their roles in the uptake and transport of zinc and iron. BMC Plant Biology. 24:3.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
4 months agoysl22 yellow stripe-like transporter22:
 
   Song, ZZ et al. 2024. Identification and characterization of yellow stripe-like genes in maize suggest their roles in the uptake and transport of zinc and iron. BMC Plant Biology. 24:3.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
4 months agoysl23 yellow stripe-like transporter23:
 
   Song, ZZ et al. 2024. Identification and characterization of yellow stripe-like genes in maize suggest their roles in the uptake and transport of zinc and iron. BMC Plant Biology. 24:3.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
4 months agoysl19 yellow stripe-like transporter19:
 
   Song, ZZ et al. 2024. Identification and characterization of yellow stripe-like genes in maize suggest their roles in the uptake and transport of zinc and iron. BMC Plant Biology. 24:3.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
4 months agomyb63 MYB-transcription factor 63:
4.08
   Bangtai Wang et al. 2024. Genome-wide association study for stalk lodging resistance related traits in maize (Zea mays L.) BMC Genomics. 25:19.     Reference: January 2nd, 2024
Gene Product: July 25th, 2017
Variation: August 24th, 2017
4 months agoIDP4955  :
10.06
GRMZM2G402027
Liu, HF et al. 2024. ZmC2H2-149 negatively regulates drought tolerance by repressing ZmHSD1 in maize. Plant Cell Environ. :doi: 10.1111/pce.14798.     Reference: January 2nd, 2024
Variation: January 2nd, 2024
Gene Model: July 21st, 2021
4 months agofl3 floury3:
8.03
GRMZM2G006585
Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Gene Product: September 7th, 2017
Variation: September 7th, 2017
Gene Model: September 7th, 2017
4 months agoal9 aleurone9:
8.08
GRMZM2G091054
Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Variation: October 14th, 2009
Gene Model: January 14th, 2016
4 months agoesr6 embryo surrounding region6:
4.09
GRMZM2G048353
Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Gene Product: December 12th, 2022
Variation: January 5th, 2016
Gene Model: January 5th, 2016
4 months agomc1 mucronate1:
2.06
GRMZM2G518638
Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Gene Product: September 17th, 2010
Variation: September 16th, 2010
Gene Model: July 8th, 2013
4 months agomch1 maize CRY1 homolog1:
 
GRMZM5G805627
Zhang, H et al. 2024. Reveal the kernel dehydration mechanisms in maize based on proteomic and metabolomic analysis. BMC Plant Biology. 24:15.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
Variation: October 14th, 2010
Gene Model: August 31st, 2018
4 months agomn1 miniature seed1:
2.04
   Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Gene Product: June 12th, 2018
Variation: April 13th, 2015
4 months agoms8 male sterile8:
8.06
GRMZM2G119265
Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Gene Product: July 29th, 2013
Variation: July 29th, 2013
Gene Model: July 29th, 2013
4 months agoo11 opaque endosperm11:
 
GRMZM2G147685
Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.   AT1G49770 (TAIR) Reference: January 2nd, 2024
Gene Product: September 14th, 2016
Variation: February 8th, 2018
Gene Model: February 8th, 2018
4 months agosh4 shrunken4:
5.05
GRMZM2G135291
Song, ZZ et al. 2024. Identification and characterization of yellow stripe-like genes in maize suggest their roles in the uptake and transport of zinc and iron. BMC Plant Biology. 24:3.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
Variation: November 29th, 2023
Gene Model: May 8th, 2021
4 months agoys1 yellow stripe1:
5.05 - 5.06
   Song, ZZ et al. 2024. Identification and characterization of yellow stripe-like genes in maize suggest their roles in the uptake and transport of zinc and iron. BMC Plant Biology. 24:3.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
Variation: March 9th, 2018
4 months agoesr1 embryo surrounding region1:
1.02
GRMZM2G046086
Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
Variation: June 12th, 2012
Gene Model: January 5th, 2016
4 months agoesr2 embryo surrounding region2:
1.02
GRMZM2G315601
Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
Variation: June 12th, 2012
Gene Model: January 5th, 2016
4 months agosam2 S-adenosyl methionine decarboxylase2:
2.04
   Bangtai Wang et al. 2024. Genome-wide association study for stalk lodging resistance related traits in maize (Zea mays L.) BMC Genomics. 25:19.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
Variation: July 13th, 2013
4 months agoarftf7 ARF-transcription factor 7:
 
   Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Gene Product: January 29th, 2022
4 months agofarl1 FAR1-like-transcription factor 1:
 
   Huaijun Tang et al. 2024. Genome-Wide Identification and Expression Analyses of the FAR1/FHY3 Gene Family Provide Insight into Inflorescence Development in Maize Curr Issues Mol Biol. 46:430-449.     Reference: January 2nd, 2024
Gene Product: June 28th, 2019
4 months agofarl10 FAR1-like-transcription factor 10:
 
   Huaijun Tang et al. 2024. Genome-Wide Identification and Expression Analyses of the FAR1/FHY3 Gene Family Provide Insight into Inflorescence Development in Maize Curr Issues Mol Biol. 46:430-449.     Reference: January 2nd, 2024
Gene Product: June 28th, 2019
4 months agofarl12 FAR1-like-transcription factor 12:
 
   Huaijun Tang et al. 2024. Genome-Wide Identification and Expression Analyses of the FAR1/FHY3 Gene Family Provide Insight into Inflorescence Development in Maize Curr Issues Mol Biol. 46:430-449.     Reference: January 2nd, 2024
Gene Product: June 28th, 2019
4 months agofarl13 FAR1-like-transcription factor 13:
 
   Huaijun Tang et al. 2024. Genome-Wide Identification and Expression Analyses of the FAR1/FHY3 Gene Family Provide Insight into Inflorescence Development in Maize Curr Issues Mol Biol. 46:430-449.     Reference: January 2nd, 2024
Gene Product: June 28th, 2019
4 months agofarl14 FAR1-like-transcription factor 14:
 
   Huaijun Tang et al. 2024. Genome-Wide Identification and Expression Analyses of the FAR1/FHY3 Gene Family Provide Insight into Inflorescence Development in Maize Curr Issues Mol Biol. 46:430-449.     Reference: January 2nd, 2024
Gene Product: June 28th, 2019
4 months agofarl15 FAR1-like-transcription factor 15:
 
   Huaijun Tang et al. 2024. Genome-Wide Identification and Expression Analyses of the FAR1/FHY3 Gene Family Provide Insight into Inflorescence Development in Maize Curr Issues Mol Biol. 46:430-449.     Reference: January 2nd, 2024
Gene Product: June 28th, 2019
4 months agofarl2 FAR1-like-transcription factor 2:
 
   Huaijun Tang et al. 2024. Genome-Wide Identification and Expression Analyses of the FAR1/FHY3 Gene Family Provide Insight into Inflorescence Development in Maize Curr Issues Mol Biol. 46:430-449.     Reference: January 2nd, 2024
Gene Product: June 28th, 2019
4 months agofarl3 FAR1-like-transcription factor 3:
 
   Huaijun Tang et al. 2024. Genome-Wide Identification and Expression Analyses of the FAR1/FHY3 Gene Family Provide Insight into Inflorescence Development in Maize Curr Issues Mol Biol. 46:430-449.     Reference: January 2nd, 2024
Gene Product: June 28th, 2019
4 months agofarl5 FAR1-like-transcription factor 5:
 
   Huaijun Tang et al. 2024. Genome-Wide Identification and Expression Analyses of the FAR1/FHY3 Gene Family Provide Insight into Inflorescence Development in Maize Curr Issues Mol Biol. 46:430-449.     Reference: January 2nd, 2024
Gene Product: June 28th, 2019
4 months agofarl6 FAR1-like-transcription factor 6:
 
   Huaijun Tang et al. 2024. Genome-Wide Identification and Expression Analyses of the FAR1/FHY3 Gene Family Provide Insight into Inflorescence Development in Maize Curr Issues Mol Biol. 46:430-449.     Reference: January 2nd, 2024
Gene Product: June 28th, 2019
4 months agofarl7 FAR1-like-transcription factor 7:
 
   Huaijun Tang et al. 2024. Genome-Wide Identification and Expression Analyses of the FAR1/FHY3 Gene Family Provide Insight into Inflorescence Development in Maize Curr Issues Mol Biol. 46:430-449.     Reference: January 2nd, 2024
Gene Product: June 28th, 2019
4 months agofarl8 FAR1-like-transcription factor 8:
 
   Huaijun Tang et al. 2024. Genome-Wide Identification and Expression Analyses of the FAR1/FHY3 Gene Family Provide Insight into Inflorescence Development in Maize Curr Issues Mol Biol. 46:430-449.     Reference: January 2nd, 2024
Gene Product: June 28th, 2019
4 months agofarl9 FAR1-like-transcription factor 9:
 
   Huaijun Tang et al. 2024. Genome-Wide Identification and Expression Analyses of the FAR1/FHY3 Gene Family Provide Insight into Inflorescence Development in Maize Curr Issues Mol Biol. 46:430-449.     Reference: January 2nd, 2024
Gene Product: June 28th, 2019
4 months agowrky15 WRKY-transcription factor 15:
 
   Gu, L et al. 2023. ZmB12D, a target of transcription factor ZmWRKY70, enhances the tolerance of Arabidopsis to submergence Plant Physiol Biochem. 206:108322.     Reference: January 2nd, 2024
Gene Product: July 24th, 2017
4 months agosweet15a sugars will eventually be exported transporter15a:
4.05
GRMZM2G168365
Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Gene Product: November 4th, 2015
Variation: September 1st, 2003
Gene Model: November 3rd, 2015
4 months agonkd2 naked endosperm2:
10.06
GRMZM5G884137
Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Gene Product: January 3rd, 2015
Variation: December 21st, 2017
Gene Model: December 21st, 2017
4 months agozp27 27-kDa zein protein:
7.02
   Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Gene Product: September 17th, 2010
Variation: December 10th, 2019
4 months agotar1 tryptophan aminotransferase related1:
6.05
GRMZM2G127160
Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Gene Product: April 30th, 2011
Gene Model: June 4th, 2012
4 months agoole1 oleosin1:
2.03
   Zhang, L et al. 2024. Genetic variation in ZmKW1 contributes to kernel weight and size in dent corn and popcorn. Plant Biotechnol J.     Reference: January 2nd, 2024
Gene Product: July 23rd, 2018
Variation: February 20th, 2015
4 months agoAY110393  :
1.04
GRMZM2G084783
Bangtai Wang et al. 2024. Genome-wide association study for stalk lodging resistance related traits in maize (Zea mays L.) BMC Genomics. 25:19.     Reference: January 2nd, 2024
Variation: September 25th, 2007
Gene Model: February 10th, 2017
4 months agofarl16 FAR1-like-transcription factor 16:
2.04
   Huaijun Tang et al. 2024. Genome-Wide Identification and Expression Analyses of the FAR1/FHY3 Gene Family Provide Insight into Inflorescence Development in Maize Curr Issues Mol Biol. 46:430-449.     Reference: January 2nd, 2024
Gene Product: June 28th, 2019
Variation: May 20th, 2006
4 months agohag103a histone acetyl transferase GNAT/MYST103a:
2.04
GRMZM2G100872
Can Hu et al. 2024. Genetic dissection of resistance to gray leaf spot by genome-wide association study in a multi-parent maize population. BMC Plant Biology. 24:10.     Reference: January 2nd, 2024
Gene Product: January 4th, 2018
Variation: September 1st, 2003
Gene Model: January 4th, 2018
4 months agohmg9 HMG-transcription factor 9:
5.04
GRMZM2G060253
Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Variation: September 1st, 2003
Gene Model: August 28th, 2021
4 months agosina4 seven in absentia4:
1.04
GRMZM2G061624
Zhang, L et al. 2024. Genetic variation in ZmKW1 contributes to kernel weight and size in dent corn and popcorn. Plant Biotechnol J.     Reference: January 2nd, 2024
Gene Product: January 24th, 2021
Variation: January 2nd, 2024
Gene Model: February 7th, 2020
4 months agopco099353  :
2.08
GRMZM2G151826
Zhang, L et al. 2024. Genetic variation in ZmKW1 contributes to kernel weight and size in dent corn and popcorn. Plant Biotechnol J.     Reference: January 2nd, 2024
Variation: September 25th, 2007
Gene Model: March 21st, 2020
4 months agoapt1 aberrant pollen transmission1:
9.04
GRMZM2G448687
Zhang, H et al. 2024. Reveal the kernel dehydration mechanisms in maize based on proteomic and metabolomic analysis. BMC Plant Biology. 24:15.     Reference: January 2nd, 2024
Variation: October 15th, 2012
Gene Model: May 31st, 2014
4 months agode18 defective18:
10.03
GRMZM2G091819
Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Gene Product: June 18th, 2018
Variation: January 21st, 2016
Gene Model: September 11th, 2012
4 months agomeg14 maternally expressed gene14:
 
GRMZM2G145466
Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Variation: August 29th, 2014
Gene Model: August 29th, 2014
4 months agoysl15 yellow stripe-like transporter15:
4.06
GRMZM2G368398
Song, ZZ et al. 2024. Identification and characterization of yellow stripe-like genes in maize suggest their roles in the uptake and transport of zinc and iron. BMC Plant Biology. 24:3.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
Gene Model: April 18th, 2020
4 months agodef2 defensin-like protein2:
 
GRMZM2G368861
Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Gene Product: December 12th, 2022
Gene Model: June 10th, 2016
4 months agosbt1 subtilisin1:
 
GRMZM2G437435
Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Gene Product: November 11th, 2016
Variation: November 11th, 2016
Gene Model: November 11th, 2016
4 months agovpp7 vacuolar proton pump7:
 
GRMZM2G069095
Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
Gene Model: August 25th, 2018
4 months agolea14 late embryogenesis abundant protein14:
 
GRMZM2G050607
Zhang, H et al. 2024. Reveal the kernel dehydration mechanisms in maize based on proteomic and metabolomic analysis. BMC Plant Biology. 24:15.     Reference: January 2nd, 2024
Gene Product: January 31st, 2019
Gene Model: January 31st, 2019
4 months agoysl20 yellow stripe-like transporter20:
 
GRMZM2G358051
Song, ZZ et al. 2024. Identification and characterization of yellow stripe-like genes in maize suggest their roles in the uptake and transport of zinc and iron. BMC Plant Biology. 24:3.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
Gene Model: July 10th, 2019
4 months agothx35 Trihelix-transcription factor 35:
 
GRMZM2G081445
Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Gene Product: November 9th, 2021
Gene Model: August 7th, 2019
4 months agokw9 kernel weight9:
 
GRMZM2G171994
Zhang, L et al. 2024. Genetic variation in ZmKW1 contributes to kernel weight and size in dent corn and popcorn. Plant Biotechnol J.     Reference: January 2nd, 2024
Gene Product: December 27th, 2016
Gene Model: June 2nd, 2020
4 months agoysl1 yellow stripe-like transporter1:
 
GRMZM2G051179
Song, ZZ et al. 2024. Identification and characterization of yellow stripe-like genes in maize suggest their roles in the uptake and transport of zinc and iron. BMC Plant Biology. 24:3.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
Gene Model: July 8th, 2020
4 months agoysl6 yellow stripe-like transporter6:
 
GRMZM2G085833
Song, ZZ et al. 2024. Identification and characterization of yellow stripe-like genes in maize suggest their roles in the uptake and transport of zinc and iron. BMC Plant Biology. 24:3.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
Gene Model: July 8th, 2020
4 months agoysl11 yellow stripe-like transporter11:
 
GRMZM5G812538
Song, ZZ et al. 2024. Identification and characterization of yellow stripe-like genes in maize suggest their roles in the uptake and transport of zinc and iron. BMC Plant Biology. 24:3.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
Gene Model: July 8th, 2020
4 months agoysl9 yellow stripe-like transporter9:
 
GRMZM5G814926
Song, ZZ et al. 2024. Identification and characterization of yellow stripe-like genes in maize suggest their roles in the uptake and transport of zinc and iron. BMC Plant Biology. 24:3.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
Gene Model: July 8th, 2020
4 months agoysl12 yellow stripe-like transporter12:
 
GRMZM5G893444
Song, ZZ et al. 2024. Identification and characterization of yellow stripe-like genes in maize suggest their roles in the uptake and transport of zinc and iron. BMC Plant Biology. 24:3.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
Gene Model: July 8th, 2020
4 months agoysl17 yellow stripe-like transporter17:
 
GRMZM2G049238
Song, ZZ et al. 2024. Identification and characterization of yellow stripe-like genes in maize suggest their roles in the uptake and transport of zinc and iron. BMC Plant Biology. 24:3.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
Gene Model: July 8th, 2020
4 months agoysl10 yellow stripe-like transporter10:
 
GRMZM2G062844
Song, ZZ et al. 2024. Identification and characterization of yellow stripe-like genes in maize suggest their roles in the uptake and transport of zinc and iron. BMC Plant Biology. 24:3.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
Gene Model: July 8th, 2020
4 months agoysl14 yellow stripe-like transporter14:
 
GRMZM2G120922
Song, ZZ et al. 2024. Identification and characterization of yellow stripe-like genes in maize suggest their roles in the uptake and transport of zinc and iron. BMC Plant Biology. 24:3.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
Gene Model: July 8th, 2020
4 months agoysl18 yellow stripe-like transporter18:
 
GRMZM2G004440
Song, ZZ et al. 2024. Identification and characterization of yellow stripe-like genes in maize suggest their roles in the uptake and transport of zinc and iron. BMC Plant Biology. 24:3.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
Gene Model: July 8th, 2020
4 months agoysl8 yellow stripe-like transporter8:
 
GRMZM2G018148
Song, ZZ et al. 2024. Identification and characterization of yellow stripe-like genes in maize suggest their roles in the uptake and transport of zinc and iron. BMC Plant Biology. 24:3.     Reference: January 2nd, 2024
Gene Product: September 1st, 2003
Gene Model: July 9th, 2020
4 months agoZm00001d022084  :
 
GRMZM2G045155
Zainab M Almutairi 2022. In Silico Identification and Characterization of B12D Family Proteins in Viridiplantae. Evol Bioinform. 18:11769343221106795.   AT3G29970 (TAIR) Reference: January 2nd, 2024
Gene Product: January 2nd, 2024
Gene Model: August 27th, 2021
4 months agoZm00001d039695  :
 
GRMZM2G033126
Bangtai Wang et al. 2024. Genome-wide association study for stalk lodging resistance related traits in maize (Zea mays L.) BMC Genomics. 25:19.   At4g36470 (TAIR) Reference: January 2nd, 2024
Gene Product: January 5th, 2023
Gene Model: November 1st, 2021
4 months agopco110104  :
6.04
GRMZM2G360339
Zainab M Almutairi 2022. In Silico Identification and Characterization of B12D Family Proteins in Viridiplantae. Evol Bioinform. 18:11769343221106795.     Reference: January 2nd, 2024
Gene Product: January 2nd, 2024
Gene Model: January 13th, 2020
4 months agodef1 defensin-like protein1:
10.03
GRMZM2G368890
Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Gene Product: December 12th, 2022
Gene Model: June 10th, 2016
4 months agoAY103944  :
2.04
GRMZM2G352129
Zhang, L et al. 2024. Genetic variation in ZmKW1 contributes to kernel weight and size in dent corn and popcorn. Plant Biotechnol J.     Reference: January 2nd, 2024
Variation: September 25th, 2007
Gene Model: May 30th, 2017
4 months agoAY106518  :
3.07
GRMZM2G425629
Zhang, H et al. 2024. Reveal the kernel dehydration mechanisms in maize based on proteomic and metabolomic analysis. BMC Plant Biology. 24:15.     Reference: January 2nd, 2024
Gene Product: January 31st, 2019
Gene Model: April 8th, 2020
4 months agocrd101 chromdomain-containing protein101:
5.03
GRMZM2G117100
Bangtai Wang et al. 2024. Genome-wide association study for stalk lodging resistance related traits in maize (Zea mays L.) BMC Genomics. 25:19.     Reference: January 2nd, 2024
Gene Product: July 7th, 2022
Gene Model: May 10th, 2020
4 months agoIDP694  :
9.00
GRMZM2G027392
Zainab M Almutairi 2022. In Silico Identification and Characterization of B12D Family Proteins in Viridiplantae. Evol Bioinform. 18:11769343221106795.     Reference: January 2nd, 2024
Gene Product: January 2nd, 2024
Variation: March 31st, 2005
Gene Model: January 22nd, 2019
4 months agobi1 bax inhibitor1:
5.03
GRMZM2G029087
Yuan, Y et al. 2024. Decoding the gene regulatory network of endosperm differentiation in maize Nat Commun. 15:34.     Reference: January 2nd, 2024
Gene Product: October 26th, 2020
Gene Model: October 26th, 2020
4 months agorboh11 respiratory burst oxidase11:
 
   Li, J et al. 2023. Identification of ZmRBOHD1 interacting with ZmCDPK32 in maize J Beijing Normal Univ (Nat Sci). 59:629-636.     Reference: December 29th, 2023
Gene Product: February 18th, 2023
4 months agorboh12 respiratory burst oxidase12:
 
   Li, J et al. 2023. Identification of ZmRBOHD1 interacting with ZmCDPK32 in maize J Beijing Normal Univ (Nat Sci). 59:629-636.     Reference: December 29th, 2023
Gene Product: February 18th, 2023
4 months agorboh13 respiratory burst oxidase13:
 
   Li, J et al. 2023. Identification of ZmRBOHD1 interacting with ZmCDPK32 in maize J Beijing Normal Univ (Nat Sci). 59:629-636.     Reference: December 29th, 2023
Gene Product: February 18th, 2023
4 months agorboh15 respiratory burst oxidase15:
 
   Li, J et al. 2023. Identification of ZmRBOHD1 interacting with ZmCDPK32 in maize J Beijing Normal Univ (Nat Sci). 59:629-636.     Reference: December 29th, 2023
Gene Product: February 18th, 2023
4 months agoLOC103654750  :
 
   Nowak, B et al. 2024. Identification and Analysis of Candidate Genes Associated with Yield Structure Traits and Maize Yield Using Next-Generation Sequencing Technology Genes. 15:56.   AT1G17110 (TAIR) Reference: December 29th, 2023
Gene Product: November 16th, 2023
4 months agobx14 benzoxazinone synthesis14:
2.05
GRMZM2G127418
Zhang, L et al. 2023. Genome-wide identification and functional study of caffeic acid O-methyltransferase in maize Fujian J Agric Sci. 38:1−9.     Reference: December 29th, 2023
Gene Product: July 8th, 2013
Variation: June 20th, 2016
Gene Model: June 20th, 2016
4 months agorboh9 respiratory burst oxidase9:
2.09
GRMZM2G358619
Li, J et al. 2023. Identification of ZmRBOHD1 interacting with ZmCDPK32 in maize J Beijing Normal Univ (Nat Sci). 59:629-636.     Reference: December 29th, 2023
Gene Product: February 18th, 2023
Gene Model: May 5th, 2021
4 months agohb120 Homeobox-transcription factor 120:
 
   Nowak, B et al. 2024. Identification and Analysis of Candidate Genes Associated with Yield Structure Traits and Maize Yield Using Next-Generation Sequencing Technology Genes. 15:56.     Reference: December 29th, 2023
Variation: August 26th, 2023
4 months agobhlh81 bHLH-transcription factor 81:
 
   Nowak, B et al. 2024. Identification and Analysis of Candidate Genes Associated with Yield Structure Traits and Maize Yield Using Next-Generation Sequencing Technology Genes. 15:56.     Reference: December 29th, 2023
Variation: July 24th, 2018
4 months agobx7 benzoxazinone synthesis7:
4.03
GRMZM2G441753
Zhang, L et al. 2023. Genome-wide identification and functional study of caffeic acid O-methyltransferase in maize Fujian J Agric Sci. 38:1−9.     Reference: December 29th, 2023
Gene Product: October 31st, 2011
Variation: October 26th, 2011
Gene Model: October 19th, 2011
4 months agortp1 root preferential1:
4.03 - 4.04
   Zhang, L et al. 2023. Genome-wide identification and functional study of caffeic acid O-methyltransferase in maize Fujian J Agric Sci. 38:1−9.     Reference: December 29th, 2023
Gene Product: September 1st, 2003
Variation: July 7th, 2013
4 months agorboh1 respiratory burst oxidase1:
3.06
GRMZM2G426953
Li, J et al. 2023. Identification of ZmRBOHD1 interacting with ZmCDPK32 in maize J Beijing Normal Univ (Nat Sci). 59:629-636.     Reference: December 29th, 2023
Gene Product: February 18th, 2023
Variation: June 7th, 2014
Gene Model: July 2nd, 2013
4 months agorboh3 respiratory burst oxidase3:
 
GRMZM2G043435
Li, J et al. 2023. Identification of ZmRBOHD1 interacting with ZmCDPK32 in maize J Beijing Normal Univ (Nat Sci). 59:629-636.     Reference: December 29th, 2023
Gene Product: February 18th, 2023
Gene Model: July 2nd, 2013
4 months agonanmt1 nicotinate N-methyltransferase1:
4.06
GRMZM2G082007
Zhang, L et al. 2023. Genome-wide identification and functional study of caffeic acid O-methyltransferase in maize Fujian J Agric Sci. 38:1−9.     Reference: December 29th, 2023
Gene Product: March 10th, 2021
Gene Model: June 23rd, 2016
4 months agorboh7 respiratory burst oxidase7:
 
GRMZM2G300965
Li, J et al. 2023. Identification of ZmRBOHD1 interacting with ZmCDPK32 in maize J Beijing Normal Univ (Nat Sci). 59:629-636.     Reference: December 29th, 2023
Gene Product: February 18th, 2023
Gene Model: June 24th, 2021
4 months agofomt3 flavonoid O-methyltransferase 3:
 
GRMZM2G106172
Zhang, L et al. 2023. Genome-wide identification and functional study of caffeic acid O-methyltransferase in maize Fujian J Agric Sci. 38:1−9.     Reference: December 29th, 2023
Gene Product: February 16th, 2011
Gene Model: November 1st, 2021
4 months agorboh5 respiratory burst oxidase5:
 
GRMZM2G323731
Li, J et al. 2023. Identification of ZmRBOHD1 interacting with ZmCDPK32 in maize J Beijing Normal Univ (Nat Sci). 59:629-636.     Reference: December 29th, 2023
Gene Product: February 18th, 2023
Gene Model: January 5th, 2022
4 months agorboh6 respiratory burst oxidase6:
 
GRMZM2G401179
Li, J et al. 2023. Identification of ZmRBOHD1 interacting with ZmCDPK32 in maize J Beijing Normal Univ (Nat Sci). 59:629-636.     Reference: December 29th, 2023
Gene Product: February 18th, 2023
Gene Model: January 5th, 2022
4 months agorboh8 respiratory burst oxidase8:
 
GRMZM2G448185
Li, J et al. 2023. Identification of ZmRBOHD1 interacting with ZmCDPK32 in maize J Beijing Normal Univ (Nat Sci). 59:629-636.     Reference: December 29th, 2023
Gene Product: February 18th, 2023
Gene Model: February 15th, 2022
4 months agofomt5 flavonoid O-methyltransferase 5:
4.07
GRMZM2G099297
Zhang, L et al. 2023. Genome-wide identification and functional study of caffeic acid O-methyltransferase in maize Fujian J Agric Sci. 38:1−9.     Reference: December 29th, 2023
Gene Product: February 16th, 2011
Variation: March 31st, 2005
Gene Model: May 24th, 2021
4 months agorboh2 respiratory burst oxidase2:
3.07
GRMZM2G138152
Li, J et al. 2023. Identification of ZmRBOHD1 interacting with ZmCDPK32 in maize J Beijing Normal Univ (Nat Sci). 59:629-636.     Reference: December 29th, 2023
Gene Product: February 18th, 2023
Gene Model: July 2nd, 2013
4 months agohb151 homeobox-transcription factor 151:
 
   Xuanxuan Chen et al. 2024. A Comprehensive Identification and Expression Analysis of the WUSCHEL Homeobox-Containing Protein Family Reveals Their Special Role in Development and Abiotic Stress Response in Zea mays L. Int J Mol Sci. 25:441.     Reference: December 28th, 2023
Gene Product: August 25th, 2017
4 months agons2 narrow sheath2:
4.08
   Xuanxuan Chen et al. 2024. A Comprehensive Identification and Expression Analysis of the WUSCHEL Homeobox-Containing Protein Family Reveals Their Special Role in Development and Abiotic Stress Response in Zea mays L. Int J Mol Sci. 25:441.     Reference: December 28th, 2023
Gene Product: August 25th, 2017
Variation: June 29th, 2005
4 months agowox9c WUSCHEL related homeobox 9c:
 
GRMZM2G409881
Xuanxuan Chen et al. 2024. A Comprehensive Identification and Expression Analysis of the WUSCHEL Homeobox-Containing Protein Family Reveals Their Special Role in Development and Abiotic Stress Response in Zea mays L. Int J Mol Sci. 25:441.     Reference: December 28th, 2023
Gene Product: August 25th, 2017
Variation: September 6th, 2007
Gene Model: December 21st, 2015
4 months agowox9b WUSCHEL related homeobox 9b:
 
GRMZM2G031882
Xuanxuan Chen et al. 2024. A Comprehensive Identification and Expression Analysis of the WUSCHEL Homeobox-Containing Protein Family Reveals Their Special Role in Development and Abiotic Stress Response in Zea mays L. Int J Mol Sci. 25:441.     Reference: December 28th, 2023
Gene Product: August 25th, 2017
Variation: September 6th, 2007
Gene Model: December 21st, 2015
4 months agomyb152 MYB-transcription factor 152:
7.03
GRMZM2G104551
Wang, LP et al. 2024. Functional identification of maize transcription factor ZmMYB12 to enhance drought resistance and low phosphorus tolerance in plants Acta Agron Sin. 50:76-88.     Reference: December 28th, 2023
Variation: September 1st, 2003
Gene Model: September 9th, 2018
4 months agowox11 WUSCHEL-related homeobox transcription factor 11:
 
   Xuanxuan Chen et al. 2024. A Comprehensive Identification and Expression Analysis of the WUSCHEL Homeobox-Containing Protein Family Reveals Their Special Role in Development and Abiotic Stress Response in Zea mays L. Int J Mol Sci. 25:441.     Reference: December 28th, 2023
Gene Product: August 25th, 2017
4 months agowox13b WUSCHEL-related homeobox transcription factor 13b:
 
   Xuanxuan Chen et al. 2024. A Comprehensive Identification and Expression Analysis of the WUSCHEL Homeobox-Containing Protein Family Reveals Their Special Role in Development and Abiotic Stress Response in Zea mays L. Int J Mol Sci. 25:441.     Reference: December 28th, 2023
Gene Product: August 25th, 2017
4 months agowox13a WUSCHEL-related homeobox-transcription factor 13a:
 
   Xuanxuan Chen et al. 2024. A Comprehensive Identification and Expression Analysis of the WUSCHEL Homeobox-Containing Protein Family Reveals Their Special Role in Development and Abiotic Stress Response in Zea mays L. Int J Mol Sci. 25:441.     Reference: December 28th, 2023
Gene Product: August 25th, 2017
4 months agowox3b WUSCHEL-related homeobox 3b:
 
   Xuanxuan Chen et al. 2024. A Comprehensive Identification and Expression Analysis of the WUSCHEL Homeobox-Containing Protein Family Reveals Their Special Role in Development and Abiotic Stress Response in Zea mays L. Int J Mol Sci. 25:441.     Reference: December 28th, 2023
Gene Product: August 25th, 2017
4 months agowox5a WUSCHEL-homeobox-transcription factor 5A:
 
   Xuanxuan Chen et al. 2024. A Comprehensive Identification and Expression Analysis of the WUSCHEL Homeobox-Containing Protein Family Reveals Their Special Role in Development and Abiotic Stress Response in Zea mays L. Int J Mol Sci. 25:441.     Reference: December 28th, 2023
Gene Product: August 25th, 2017
4 months agowox5b WUSCHEL-homeobox-transcription factor 5b:
 
   Xuanxuan Chen et al. 2024. A Comprehensive Identification and Expression Analysis of the WUSCHEL Homeobox-Containing Protein Family Reveals Their Special Role in Development and Abiotic Stress Response in Zea mays L. Int J Mol Sci. 25:441.     Reference: December 28th, 2023
Gene Product: August 25th, 2017
4 months agowox2b WUSCHEL-related homeobox 2b:
 
   Xuanxuan Chen et al. 2024. A Comprehensive Identification and Expression Analysis of the WUSCHEL Homeobox-Containing Protein Family Reveals Their Special Role in Development and Abiotic Stress Response in Zea mays L. Int J Mol Sci. 25:441.     Reference: December 28th, 2023
Gene Product: August 25th, 2017
4 months agofdl1 fused leaves1:
7.04
GRMZM2G056407
Wang, LP et al. 2024. Functional identification of maize transcription factor ZmMYB12 to enhance drought resistance and low phosphorus tolerance in plants Acta Agron Sin. 50:76-88.     Reference: December 28th, 2023
Gene Product: September 1st, 2003
Variation: February 13th, 2020
Gene Model: September 12th, 2018
4 months agowox9a WUSCHEL related homeobox 9a:
 
GRMZM2G133972
Xuanxuan Chen et al. 2024. A Comprehensive Identification and Expression Analysis of the WUSCHEL Homeobox-Containing Protein Family Reveals Their Special Role in Development and Abiotic Stress Response in Zea mays L. Int J Mol Sci. 25:441.     Reference: December 28th, 2023
Gene Product: August 25th, 2017
Variation: January 31st, 2011
Gene Model: December 21st, 2015
4 months agowox4 wuschel-related homeobox4:
 
   Xuanxuan Chen et al. 2024. A Comprehensive Identification and Expression Analysis of the WUSCHEL Homeobox-Containing Protein Family Reveals Their Special Role in Development and Abiotic Stress Response in Zea mays L. Int J Mol Sci. 25:441.     Reference: December 28th, 2023
Gene Product: August 25th, 2017
Variation: May 1st, 2016
4 months agowox12a wuschel-related homeobox12A:
 
   Xuanxuan Chen et al. 2024. A Comprehensive Identification and Expression Analysis of the WUSCHEL Homeobox-Containing Protein Family Reveals Their Special Role in Development and Abiotic Stress Response in Zea mays L. Int J Mol Sci. 25:441.     Reference: December 28th, 2023
Gene Product: August 25th, 2017
4 months agozip6 zinc-regulated, iron-regulated transporter-like protein6:
 
GRMZM2G034551
An, TT et al. 2023. Unveiling Si’s shield: A holistic examination of Cd stress alleviation in maize through physiological and transcriptomic insights Environ Exp Bot. :doi: 10.1016/j.envexpbot.2023.105626.     Reference: December 28th, 2023
Gene Product: June 5th, 2019
Gene Model: June 5th, 2019
4 months agosod10 superoxide dismutase10:
 
GRMZM2G124455
An, TT et al. 2023. Unveiling Si’s shield: A holistic examination of Cd stress alleviation in maize through physiological and transcriptomic insights Environ Exp Bot. :doi: 10.1016/j.envexpbot.2023.105626.     Reference: December 28th, 2023
Gene Product: October 4th, 2021
Gene Model: June 22nd, 2020
4 months agoflz32 FCS-like zinc finger32:
 
GRMZM2G125020
An, TT et al. 2023. Unveiling Si’s shield: A holistic examination of Cd stress alleviation in maize through physiological and transcriptomic insights Environ Exp Bot. :doi: 10.1016/j.envexpbot.2023.105626.     Reference: December 28th, 2023
Gene Product: March 29th, 2021
Gene Model: March 30th, 2021
4 months agocyp51 cytochrome P450 51:
 
   Yactayo-Chang, JP et al. 2023. Maize terpene synthase 1 impacts insect behavior via the production of monoterpene volatiles β-myrcene and linalool Phytochemistry. :doi: 10.1016/j.phytochem.2023.113957.     Reference: December 27th, 2023
Gene Product: December 30th, 2022
4 months agotps1 terpene synthase1:
2.02
GRMZM2G049538
Yactayo-Chang, JP et al. 2023. Maize terpene synthase 1 impacts insect behavior via the production of monoterpene volatiles β-myrcene and linalool Phytochemistry. :doi: 10.1016/j.phytochem.2023.113957.     Reference: December 27th, 2023
Gene Product: May 28th, 2012
Variation: December 27th, 2023
Gene Model: May 28th, 2012
4 months agocoi2 coronatine insensitive2:
 
GRMZM2G151536
Yactayo-Chang, JP et al. 2023. Maize terpene synthase 1 impacts insect behavior via the production of monoterpene volatiles β-myrcene and linalool Phytochemistry. :doi: 10.1016/j.phytochem.2023.113957.     Reference: December 27th, 2023
Gene Product: November 2nd, 2018
Gene Model: November 2nd, 2018
4 months agoflr11 feronia-like receptor11:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: July 10th, 2019
4 months agoflr14 feronia-like receptor14:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: July 10th, 2019
4 months agoflr13 feronia-like receptor13:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: July 10th, 2019
4 months agoflr8 feronia-like receptor8:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: July 10th, 2019
4 months agoflr15 feronia-like receptor15:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: July 10th, 2019
4 months agoralf1 rapid alkalinization factor1:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
4 months agoralf2 rapid alkalinization factor2:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
4 months agoralf5 rapid alkalinization factor5:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
4 months agollg4 lorelei-like glycosylphosphatidylinositol-anchor:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
4 months agopex4 pollen extensin-like4:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: September 1st, 2003
4 months agoralf4 rapid alkalinization factor4:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
4 months agoralf6 rapid alkalinization factor6:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
4 months agoralf8 rapid alkalinization factor8:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
4 months agoralf10 rapid alkalinization factor10:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
4 months agoralf11 rapid alkalinization factor11:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
4 months agoralf13 rapid alkalinization factor13:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
4 months agoralf14 rapid alkalinization factor14:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
4 months agoralf15 rapid alkalinization factor15:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
4 months agoralf16 rapid alkalinization factor16:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
4 months agoralf17 rapid alkalinization factor17:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
4 months agoralf18 rapid alkalinization factor18:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
4 months agoralf19 rapid alkalinization factor19:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
4 months agoralf20 rapid alkalinization factor20:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
4 months agoralf21 rapid alkalinization factor21:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
4 months agoralf22 rapid alkalinization factor22:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
4 months agoralf23 rapid alkalinization factor23:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
4 months agoralf33 rapid alkalinization factor33:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
4 months agolrx15 leucine-rich repeat/extensin-like chimera protein15:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 25th, 2023
4 months agolrx8 leucine-rich repeat/extensin-like chimera protein8:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 25th, 2023
4 months agolrx11 leucine-rich repeat/extensin-like chimera protein11:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 25th, 2023
4 months agolrx10 leucine-rich repeat/extensin-like chimera protein10:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 25th, 2023
4 months agolrx13 leucine-rich repeat/extensin-like chimera protein13:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 25th, 2023
4 months agolrx9 leucine-rich repeat/extensin-like chimera protein9:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 25th, 2023
4 months agolrx6 leucine-rich repeat/extensin-like chimera protein6:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 25th, 2023
4 months agolrx1 leucine-rich repeat/extensin-like chimera protein1:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 25th, 2023
4 months agolrx4 leucine-rich repeat/extensin-like chimera protein4:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 25th, 2023
4 months agolrx7 leucine-rich repeat/extensin-like chimera protein7:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 25th, 2023
4 months agolrx12 leucine-rich repeat/extensin-like chimera protein12:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 25th, 2023
4 months agolrx5 leucine-rich repeat/extensin-like chimera protein5:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 25th, 2023
4 months agolrx2 leucine-rich repeat/extensin-like chimera protein2:
 
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 25th, 2023
4 months agopex1 pollen extensin-like1:
2.09
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
4 months agopex2 pollen extensin-like2:
4.01
GRMZM2G478929
Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: December 28th, 2016
4 months agoralf9 rapid alkalinization factor9:
3.04
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
Variation: September 1st, 2003
4 months agolrx14 leucine-rich repeat/extensin-like chimera protein14:
3.04
GRMZM2G169182
Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 25th, 2023
Variation: September 1st, 2003
Gene Model: March 4th, 2021
4 months agoralf12 rapid alkalinization factor12:
10.03
GRMZM2G153206
Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.   AT3G16570 (TAIR) Reference: December 25th, 2023
Gene Product: December 24th, 2023
Variation: September 1st, 2003
Gene Model: December 14th, 2017
4 months agopex3 pollen extensin-like3:
10.03
GRMZM2G300969
Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: December 15th, 2017
4 months agollg1 lorelei-like glycosylphosphatidylinositol-anchor1:
2.04
GRMZM2G121256
Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
Gene Model: February 23rd, 2018
4 months agoclpp2 chloroplast protease complex P2:
1.09
GRMZM2G056373
José Hernandes-Lopes et al. 2023. Enabling genome editing in tropical maize lines through an improved, morphogenic regulator-assisted transformation protocol. Frontiers in Genome Editing. 5:1241035.     Reference: December 25th, 2023
Gene Product: June 3rd, 2014
Variation: June 2nd, 2014
Gene Model: May 9th, 2013
4 months agoralf3 rapid alkalinization factor3:
3.02
GRMZM2G357124
Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
Gene Model: March 25th, 2020
4 months agocul2 cullin2:
 
GRMZM2G166694
Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: May 10th, 2018
Gene Model: May 10th, 2018
4 months agoralf7 rapid alkalinization factor7:
6.05
GRMZM2G424509
Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.   AT1G28270 (TAIR) Reference: December 25th, 2023
Gene Product: December 24th, 2023
Gene Model: January 10th, 2020
4 months agollg2 lorelei-like glycosylphosphatidylinositol-anchor2:
7.03
GRMZM2G079499
Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
Gene Model: June 8th, 2022
4 months agolrx3 leucine-rich repeat/extensin-like chimera protein3:
8.03
   Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 25th, 2023
4 months agov30 virescent30:
9.05
GRMZM2G121456
José Hernandes-Lopes et al. 2023. Enabling genome editing in tropical maize lines through an improved, morphogenic regulator-assisted transformation protocol. Frontiers in Genome Editing. 5:1241035.     Reference: December 25th, 2023
Gene Product: June 3rd, 2014
Variation: October 13th, 2014
Gene Model: May 9th, 2013
4 months agollg3 lorelei-like glycosylphosphatidylinositol-anchor3:
4.06
GRMZM2G014994
Zhou, LZ et al. 2023. The RALF signaling pathway regulates cell wall integrity during pollen tube growth in maize. Plant Cell. :doi: 10.1093/plcell/koad324.     Reference: December 25th, 2023
Gene Product: December 24th, 2023
Gene Model: April 20th, 2020
4 months agoexpa8 alpha expansin8:
 
   Xingjie Zhang et al. 2024. Hotspot Regions of Quantitative Trait Loci and Candidate Genes for Ear-Related Traits in Maize: A Literature Review Genes. 15:15.     Reference: December 22nd, 2023
Gene Product: March 12th, 2008
4 months agoppr503 pentatricopeptide repeat protein503:
 
   Xingjie Zhang et al. 2024. Hotspot Regions of Quantitative Trait Loci and Candidate Genes for Ear-Related Traits in Maize: A Literature Review Genes. 15:15.     Reference: December 22nd, 2023
Gene Product: December 27th, 2016
4 months agozmm4 Zea mays MADS4:
1.10
GRMZM2G032339
Fereshteh Jafari et al. 2023. Breeding maize of ideal plant architecture for high-density planting tolerance through modulating shade avoidance response and beyond. J Integr Plant Biol. :doi: 10.1111/jipb.13603.     Reference: December 22nd, 2023
Gene Product: September 10th, 2021
Gene Model: November 18th, 2021
4 months agocry2 cryptochrome2:
2.04
GRMZM2G049549
Fereshteh Jafari et al. 2023. Breeding maize of ideal plant architecture for high-density planting tolerance through modulating shade avoidance response and beyond. J Integr Plant Biol. :doi: 10.1111/jipb.13603.     Reference: December 22nd, 2023
Gene Product: August 31st, 2018
Variation: November 6th, 2023
Gene Model: September 5th, 2014
4 months agomatK (cp) maturase K:
 
   Rehab M Rizk et al. 2024. Effectiveness of DNA barcoding, SCOT markers and phytochemical characterization in biodiversity assessment of some Zea mays hybrids S Afr J Bot. 165:59-69.     Reference: December 22nd, 2023
Gene Product: September 1st, 2003
4 months agoba1 barren stalk1:
3.06
   Fereshteh Jafari et al. 2023. Breeding maize of ideal plant architecture for high-density planting tolerance through modulating shade avoidance response and beyond. J Integr Plant Biol. :doi: 10.1111/jipb.13603.     Reference: December 22nd, 2023
Gene Product: July 19th, 2012
Variation: March 18th, 2015
4 months agobif1 barren inflorescence1:
8.03 - 8.03
GRMZM2G130953
Xingjie Zhang et al. 2024. Hotspot Regions of Quantitative Trait Loci and Candidate Genes for Ear-Related Traits in Maize: A Literature Review Genes. 15:15.     Reference: December 22nd, 2023
Gene Product: October 16th, 2015
Variation: October 16th, 2015
Gene Model: October 16th, 2015
4 months agod5 dwarf plant5:
2.02
   Fereshteh Jafari et al. 2023. Breeding maize of ideal plant architecture for high-density planting tolerance through modulating shade avoidance response and beyond. J Integr Plant Biol. :doi: 10.1111/jipb.13603.     Reference: December 22nd, 2023
Gene Product: September 1st, 2003
Variation: December 3rd, 2015
4 months agospi1 sparse inflorescence1:
3.08
GRMZM2G025222
Fereshteh Jafari et al. 2023. Breeding maize of ideal plant architecture for high-density planting tolerance through modulating shade avoidance response and beyond. J Integr Plant Biol. :doi: 10.1111/jipb.13603.     Reference: December 22nd, 2023
Gene Product: June 18th, 2018
Variation: September 5th, 2019
Gene Model: April 24th, 2013
4 months agolgn1 liguleless narrow1:
 
GRMZM2G134382
Fereshteh Jafari et al. 2023. Breeding maize of ideal plant architecture for high-density planting tolerance through modulating shade avoidance response and beyond. J Integr Plant Biol. :doi: 10.1111/jipb.13603.     Reference: December 22nd, 2023
Gene Product: July 10th, 2019
Variation: January 15th, 2016
Gene Model: January 3rd, 2013
4 months agotan1 tangled1:
6.05
   Fereshteh Jafari et al. 2023. Breeding maize of ideal plant architecture for high-density planting tolerance through modulating shade avoidance response and beyond. J Integr Plant Biol. :doi: 10.1111/jipb.13603.     Reference: December 22nd, 2023
Variation: June 29th, 2005
4 months agorpot1 RNA polymerase T phage-like 1:
7.04
   Xingjie Zhang et al. 2024. Hotspot Regions of Quantitative Trait Loci and Candidate Genes for Ear-Related Traits in Maize: A Literature Review Genes. 15:15.     Reference: December 22nd, 2023
Gene Product: September 1st, 2003
Variation: June 27th, 2013
4 months agobige1 big embryo1:
5.00
GRMZM2G148937
Fereshteh Jafari et al. 2023. Breeding maize of ideal plant architecture for high-density planting tolerance through modulating shade avoidance response and beyond. J Integr Plant Biol. :doi: 10.1111/jipb.13603.   At1g71870 (TAIR)
LOC_Os03g62270 (MSU/TIGR)
Reference: December 22nd, 2023
Gene Product: August 17th, 2015
Variation: August 27th, 2015
Gene Model: August 16th, 2015
4 months agoereb24 AP2-EREBP-transcription factor 24:
2.02
GRMZM2G086573
Ren, ZZ et al. 2023. Analysis of the molecular mechanisms regulating how ZmEREB24 improves drought tolerance in maize (Zea mays) seedlings Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108292.     Reference: December 22nd, 2023
Variation: September 1st, 2003
Gene Model: February 21st, 2018
4 months agohb48 Homeobox-transcription factor 48:
 
   Fereshteh Jafari et al. 2023. Breeding maize of ideal plant architecture for high-density planting tolerance through modulating shade avoidance response and beyond. J Integr Plant Biol. :doi: 10.1111/jipb.13603.     Reference: December 22nd, 2023
Variation: April 7th, 2017
4 months agohb76 Homeobox-transcription factor 76:
 
   Fereshteh Jafari et al. 2023. Breeding maize of ideal plant architecture for high-density planting tolerance through modulating shade avoidance response and beyond. J Integr Plant Biol. :doi: 10.1111/jipb.13603.     Reference: December 22nd, 2023
Variation: April 7th, 2017
4 months agosbp13 SBP-transcription factor 13:
 
   Fereshteh Jafari et al. 2023. Breeding maize of ideal plant architecture for high-density planting tolerance through modulating shade avoidance response and beyond. J Integr Plant Biol. :doi: 10.1111/jipb.13603.     Reference: December 22nd, 2023
Gene Product: July 5th, 2019
Variation: June 5th, 2023
4 months agowrky98 WRKY-transcription factor 98:
4.06
GRMZM2G377217
Xingjie Zhang et al. 2024. Hotspot Regions of Quantitative Trait Loci and Candidate Genes for Ear-Related Traits in Maize: A Literature Review Genes. 15:15.     Reference: December 22nd, 2023
Gene Product: July 24th, 2017
Variation: March 15th, 2017
Gene Model: March 15th, 2017
4 months agobif2 barren inflorescence2:
1.05
   Fereshteh Jafari et al. 2023. Breeding maize of ideal plant architecture for high-density planting tolerance through modulating shade avoidance response and beyond. J Integr Plant Biol. :doi: 10.1111/jipb.13603.   AT2G34650 (TAIR) Reference: December 22nd, 2023
Gene Product: July 19th, 2012
Variation: October 23rd, 2013
4 months agoprh2 protein phosphatase homolog2:
7.04
GRMZM2G140288
Xingjie Zhang et al. 2024. Hotspot Regions of Quantitative Trait Loci and Candidate Genes for Ear-Related Traits in Maize: A Literature Review Genes. 15:15.     Reference: December 22nd, 2023
Gene Product: October 18th, 2016
Variation: December 14th, 2012
Gene Model: May 9th, 2013
4 months agoabp4 auxin binding protein homolog4:
10.03
   Xingjie Zhang et al. 2024. Hotspot Regions of Quantitative Trait Loci and Candidate Genes for Ear-Related Traits in Maize: A Literature Review Genes. 15:15.     Reference: December 22nd, 2023
Gene Product: September 1st, 2003
Variation: May 26th, 2005
4 months agommp245  :
3.05
   Fereshteh Jafari et al. 2023. Breeding maize of ideal plant architecture for high-density planting tolerance through modulating shade avoidance response and beyond. J Integr Plant Biol. :doi: 10.1111/jipb.13603.     Reference: December 22nd, 2023
Gene Product: June 23rd, 2021
4 months agodrl2 drooping leaf2:
9.06
GRMZM2G102218
Fereshteh Jafari et al. 2023. Breeding maize of ideal plant architecture for high-density planting tolerance through modulating shade avoidance response and beyond. J Integr Plant Biol. :doi: 10.1111/jipb.13603.   AT1G69180 (TAIR)
LOC_Os03g11600 (MSU/TIGR)
Reference: December 22nd, 2023
Gene Product: October 16th, 2015
Variation: July 12th, 2017
Gene Model: October 16th, 2015
4 months agovt2 vanishing tassel2:
 
GRMZM2G127308
Xingjie Zhang et al. 2024. Hotspot Regions of Quantitative Trait Loci and Candidate Genes for Ear-Related Traits in Maize: A Literature Review Genes. 15:15.   AT1G70560 (TAIR) Reference: December 22nd, 2023
Gene Product: April 30th, 2011
Variation: June 24th, 2011
Gene Model: May 2nd, 2012
4 months agoyuc2 Yucca2:
 
GRMZM2G159393
Fereshteh Jafari et al. 2023. Breeding maize of ideal plant architecture for high-density planting tolerance through modulating shade avoidance response and beyond. J Integr Plant Biol. :doi: 10.1111/jipb.13603.     Reference: December 22nd, 2023
Gene Product: June 18th, 2018
Gene Model: September 12th, 2012
4 months agopin4 PIN-formed protein4:
4.08
GRMZM2G171702
Xingjie Zhang et al. 2024. Hotspot Regions of Quantitative Trait Loci and Candidate Genes for Ear-Related Traits in Maize: A Literature Review Genes. 15:15.     Reference: December 22nd, 2023
Gene Product: April 21st, 2014
Gene Model: January 24th, 2013
4 months agoga2ox10 gibberellin 2-oxidase10:
 
GRMZM2G031724
Fereshteh Jafari et al. 2023. Breeding maize of ideal plant architecture for high-density planting tolerance through modulating shade avoidance response and beyond. J Integr Plant Biol. :doi: 10.1111/jipb.13603.     Reference: December 22nd, 2023
Gene Product: October 27th, 2014
Gene Model: October 29th, 2014
4 months agoknr6 kernel number per row6:
 
GRMZM2G119714
Xingjie Zhang et al. 2024. Hotspot Regions of Quantitative Trait Loci and Candidate Genes for Ear-Related Traits in Maize: A Literature Review Genes. 15:15.     Reference: December 22nd, 2023
Gene Product: May 13th, 2014
Variation: February 20th, 2020
Gene Model: February 20th, 2020
4 months agocsu60a  :
 
GRMZM2G084719
Xingjie Zhang et al. 2024. Hotspot Regions of Quantitative Trait Loci and Candidate Genes for Ear-Related Traits in Maize: A Literature Review Genes. 15:15.     Reference: December 22nd, 2023
Gene Product: December 27th, 2016
Gene Model: October 14th, 2020
4 months agoat1 alkali tolerance1:
 
GRMZM2G139878
Xingjie Zhang et al. 2024. Hotspot Regions of Quantitative Trait Loci and Candidate Genes for Ear-Related Traits in Maize: A Literature Review Genes. 15:15.   Os03g0407400 (Gramene) Reference: December 22nd, 2023
Gene Product: April 15th, 2021
Variation: March 23rd, 2023
Gene Model: January 28th, 2021
4 months agoyige1 yige1:
 
GRMZM2G008490
Xingjie Zhang et al. 2024. Hotspot Regions of Quantitative Trait Loci and Candidate Genes for Ear-Related Traits in Maize: A Literature Review Genes. 15:15.     Reference: December 22nd, 2023
Gene Product: November 29th, 2021
Variation: November 29th, 2021
Gene Model: November 29th, 2021
4 months agodro1 deeper rooting1:
 
GRMZM2G700200
Fereshteh Jafari et al. 2023. Breeding maize of ideal plant architecture for high-density planting tolerance through modulating shade avoidance response and beyond. J Integr Plant Biol. :doi: 10.1111/jipb.13603.   LOC_Os09g26840 (MSU/TIGR)
Os09g0439800 (Gramene)
Reference: December 22nd, 2023
Variation: July 7th, 2022
Gene Model: July 7th, 2022
4 months agosbp29 SBP-transcription factor 29:
7.03
GRMZM2G067624
Fereshteh Jafari et al. 2023. Breeding maize of ideal plant architecture for high-density planting tolerance through modulating shade avoidance response and beyond. J Integr Plant Biol. :doi: 10.1111/jipb.13603.     Reference: December 22nd, 2023
Gene Product: July 5th, 2019
Variation: July 7th, 2021
Gene Model: July 11th, 2018
4 months agoIDP689  :
8.05
GRMZM2G141922
Xingjie Zhang et al. 2024. Hotspot Regions of Quantitative Trait Loci and Candidate Genes for Ear-Related Traits in Maize: A Literature Review Genes. 15:15.     Reference: December 22nd, 2023
Variation: March 31st, 2005
Gene Model: June 10th, 2020
4 months agoelm1 elongated mesocotyl1:
8.06
   Fereshteh Jafari et al. 2023. Breeding maize of ideal plant architecture for high-density planting tolerance through modulating shade avoidance response and beyond. J Integr Plant Biol. :doi: 10.1111/jipb.13603.   AT3G09150 (TAIR) Reference: December 22nd, 2023
Gene Product: May 7th, 2006
Variation: March 30th, 2009
4 months agogpdh1 glucose-6-phosphate dehydrogenase1:
2.04
GRMZM2G130230
Xingjie Zhang et al. 2024. Hotspot Regions of Quantitative Trait Loci and Candidate Genes for Ear-Related Traits in Maize: A Literature Review Genes. 15:15.     Reference: December 22nd, 2023
Gene Product: September 1st, 2003
Gene Model: April 10th, 2015
4 months agodcl101 dicer-like 101:
1.01
GRMZM2G040762
Xingjie Zhang et al. 2024. Hotspot Regions of Quantitative Trait Loci and Candidate Genes for Ear-Related Traits in Maize: A Literature Review Genes. 15:15.     Reference: December 22nd, 2023
Gene Product: September 5th, 2006
Variation: February 20th, 2023
Gene Model: November 12th, 2014
4 months agoppr130 pentatricopeptide repeat protein130:
 
   M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: December 27th, 2016
4 months agoppr193 pentatricopeptide repeat protein193:
 
   M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: December 27th, 2016
4 months agoppr469 pentatricopeptide repeat protein469:
 
   M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: December 27th, 2016
4 months agoppr456 pentatricopeptide repeat protein456:
 
   M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: December 27th, 2016
4 months agoZm00001d020006  :
 
   Yi-Hsuan Lin et al. 2023. Exogenous Methylglyoxal Alleviates Drought-Induced ''Plant Diabetes'' and Leaf Senescence in Maize. J Exp Bot. :doi: 10.1093/jxb/erad503.     Reference: December 21st, 2023
Gene Product: August 12th, 2016
4 months agoLOC541869  :
 
   M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: February 13th, 2008
4 months agohcf60 high chlorophyll fluorescence60:
 
   M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.   At1g79850 (TAIR) Reference: December 21st, 2023
Variation: August 23rd, 2023
4 months agoGRMZM2G149273  :
 
   Yi-Hsuan Lin et al. 2023. Exogenous Methylglyoxal Alleviates Drought-Induced ''Plant Diabetes'' and Leaf Senescence in Maize. J Exp Bot. :doi: 10.1093/jxb/erad503.     Reference: December 21st, 2023
Gene Product: September 18th, 2015
4 months agoGRMZM2G329300  :
 
   Zhou, Y et al. 2022. Genes 13:456     Reference: December 21st, 2023
Gene Product: June 1st, 2022
4 months agoppr182 pentatricopeptide repeat protein182:
3.05
GRMZM2G118362
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: December 27th, 2016
Gene Model: February 24th, 2019
4 months agouaz251b(rpS11)  :
2.02
GRMZM2G044800
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: September 1st, 2003
Gene Model: January 12th, 2018
4 months agophm4880  :
2.05
GRMZM2G325749
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Variation: November 3rd, 2017
Gene Model: April 29th, 2021
4 months agorpl13 60S ribosomal protein L13:
6.05
GRMZM2G409407
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: January 13th, 2020
Gene Model: January 11th, 2020
4 months agomagi53573  :
1.07
GRMZM2G144387
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Variation: April 7th, 2021
Gene Model: February 14th, 2019
4 months agorps21b 40S ribosomal protein S21b:
 
GRMZM2G134109
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: September 1st, 2003
Variation: July 14th, 2008
Gene Model: January 8th, 2020
4 months agorpl19 ribosomal protein L19:
5.06
GRMZM2G171444
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: July 28th, 2016
4 months agogl2 glossy2:
2.02
   Delzer, B et al. 2023. Elite, transformable haploid inducers in maize Crop J. :doi: 10.1016/j.cj.2023.10.016.   AT4G24510 (TAIR) Reference: December 21st, 2023
Gene Product: February 28th, 2020
Variation: December 7th, 2012
4 months agorps27c ribosomal protein S27c:
5.01
GRMZM2G132121
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Variation: March 14th, 2015
Gene Model: March 14th, 2015
4 months agorpl29 ribosomal protein L29:
4.08
GRMZM2G028216
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: September 1st, 2003
Gene Model: July 28th, 2016
4 months agoumc1313  :
4.09
GRMZM2G054149
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Variation: September 1st, 2003
Gene Model: March 6th, 2021
4 months agorps8 ribosomal protein S8 homolog:
4.09
GRMZM2G336875
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: September 1st, 2003
Variation: April 17th, 2015
Gene Model: April 15th, 2015
4 months agoomt2 Caffeoyl CoA O-methyltransferase2:
9.02
GRMZM2G099363
Yi-Hsuan Lin et al. 2023. Exogenous Methylglyoxal Alleviates Drought-Induced ''Plant Diabetes'' and Leaf Senescence in Maize. J Exp Bot. :doi: 10.1093/jxb/erad503.     Reference: December 21st, 2023
Gene Product: January 5th, 2014
Variation: May 13th, 2016
Gene Model: September 17th, 2014
4 months agorpl40 50S ribosomal protein L40:
8.01
GRMZM2G157007
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Variation: April 12th, 2017
Gene Model: April 12th, 2017
4 months agocsu36b(rpL19)  :
5.04
GRMZM5G887054
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: September 1st, 2003
Gene Model: May 13th, 2020
4 months agorps8 (cp) 30S ribosomal protein S8 gene:
 
GRMZM5G845244
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: September 1st, 2003
Gene Model: December 26th, 2016
4 months agorps4 (cp) 30S ribosomal protein S4 gene:
 
   M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: September 1st, 2003
4 months agorps2 (cp) 30S ribosomal protein S2 gene:
 
   M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: September 1st, 2003
4 months agorps16 (cp) 30S ribosomal protein S16 gene:
 
   M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: September 1st, 2003
4 months agoLOC103642224  :
 
GRMZM2G038013
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.   At1g79850 (TAIR) Reference: December 21st, 2023
Gene Product: September 1st, 2003
Gene Model: February 17th, 2015
4 months agorpl5a 60S ribosomal protein L5-1 homolog a:
3.05
GRMZM5G815894
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: December 1st, 2019
Variation: April 9th, 2011
Gene Model: December 28th, 2016
4 months agonzp1 non-zein protein1:
8.05
GRMZM2G024838
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: October 13th, 2021
Variation: October 13th, 2021
Gene Model: September 20th, 2018
4 months agoemb18 embryo specific18:
9.03
GRMZM2G136559
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: March 9th, 2013
Variation: August 22nd, 2013
Gene Model: March 9th, 2013
4 months agoqm1 QM1 homolog1:
5.03
   M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: October 2nd, 2006
Variation: September 1st, 2003
4 months agorps5 ribosomal protein S5:
8.01
GRMZM2G156673
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: September 1st, 2003
Variation: August 25th, 2015
Gene Model: April 15th, 2015
4 months agorps12 ribosomal proteinS12 (homolog):
7.02
GRMZM2G063340
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: September 1st, 2003
Variation: July 14th, 2008
Gene Model: April 15th, 2015
4 months agorpl35 60S ribosomal protein L35:
5.04
GRMZM2G043279
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: August 22nd, 2019
Gene Model: June 19th, 2017
4 months agoAY109733  :
5.01
GRMZM2G130544
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Variation: July 29th, 2004
Gene Model: June 15th, 2018
4 months agoarpp2a-2 acidic ribosomal protein P2a-2:
8.03
GRMZM2G102891
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Variation: January 14th, 2016
Gene Model: August 28th, 2015
4 months agorpl17c ribosomal protein L17c:
 
GRMZM2G148744
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Variation: June 7th, 2013
Gene Model: July 28th, 2016
4 months agotrps5 trehalose-6-phosphate synthase5:
 
GRMZM2G527891
Yi-Hsuan Lin et al. 2023. Exogenous Methylglyoxal Alleviates Drought-Induced ''Plant Diabetes'' and Leaf Senescence in Maize. J Exp Bot. :doi: 10.1093/jxb/erad503.     Reference: December 21st, 2023
Gene Product: October 3rd, 2020
Gene Model: September 15th, 2013
4 months agotrps13 trehalose-6-phosphate synthase13:
 
GRMZM2G019183
Yi-Hsuan Lin et al. 2023. Exogenous Methylglyoxal Alleviates Drought-Induced ''Plant Diabetes'' and Leaf Senescence in Maize. J Exp Bot. :doi: 10.1093/jxb/erad503.     Reference: December 21st, 2023
Gene Product: October 3rd, 2020
Gene Model: September 15th, 2013
4 months agoppr315 pentatricopeptide repeat protein315:
5.05
GRMZM2G165290
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: December 27th, 2016
Gene Model: May 21st, 2020
4 months agoupl2 ubiquitin-protein ligase2:
 
GRMZM2G049141
Delzer, B et al. 2023. Elite, transformable haploid inducers in maize Crop J. :doi: 10.1016/j.cj.2023.10.016.     Reference: December 21st, 2023
Gene Product: November 26th, 2019
Gene Model: November 19th, 2019
4 months agoGRMZM2G059392  :
 
GRMZM2G059392
Zhou, Y et al. 2022. Genes 13:456   AT3G53450 (TAIR) Reference: December 21st, 2023
Gene Product: November 21st, 2019
Gene Model: November 21st, 2019
4 months agorpl5c 60S ribosomal protein L5, mitochondrial-like homolog c:
 
GRMZM5G831780
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: December 1st, 2019
Gene Model: December 1st, 2019
4 months agocdpk31 calcium dependent protein kinase31:
 
GRMZM2G463464
Srikanth Burra et al. 2023. Genome-wide identification, characterization, and phylogenetic analysis of calcium-dependent protein kinase in Zea mays Chelonian Conserv Bi. 18:1424-1434.     Reference: December 21st, 2023
Gene Product: December 3rd, 2013
Gene Model: December 13th, 2019
4 months agorps21c 40S ribosomal protein S21c:
 
   M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: September 1st, 2003
4 months agorpl23a 60S ribosomal protein L23a:
 
GRMZM2G166659
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: September 1st, 2003
Gene Model: January 12th, 2020
4 months agotrpp6 trehalose-6-phosphate phosphatase6:
5.06
GRMZM2G112830
Yi-Hsuan Lin et al. 2023. Exogenous Methylglyoxal Alleviates Drought-Induced ''Plant Diabetes'' and Leaf Senescence in Maize. J Exp Bot. :doi: 10.1093/jxb/erad503.     Reference: December 21st, 2023
Gene Product: October 3rd, 2020
Gene Model: February 7th, 2018
4 months agocdpk44 calcium dependent protein kinase44:
 
GRMZM2G347047
Srikanth Burra et al. 2023. Genome-wide identification, characterization, and phylogenetic analysis of calcium-dependent protein kinase in Zea mays Chelonian Conserv Bi. 18:1424-1434.     Reference: December 21st, 2023
Gene Product: December 3rd, 2013
Gene Model: December 18th, 2020
4 months agorpl14a 60S ribosomal protein L14:
 
GRMZM2G140116
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: August 18th, 2021
Gene Model: August 18th, 2021
4 months agopco123006  :
7.02
GRMZM5G843748
Yi-Hsuan Lin et al. 2023. Exogenous Methylglyoxal Alleviates Drought-Induced ''Plant Diabetes'' and Leaf Senescence in Maize. J Exp Bot. :doi: 10.1093/jxb/erad503.     Reference: December 21st, 2023
Variation: September 25th, 2007
Gene Model: July 25th, 2020
4 months agopco154872  :
8.03
   M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Variation: September 25th, 2007
4 months agopco138567b  :
9.04
GRMZM5G862107
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Variation: September 25th, 2007
Gene Model: June 25th, 2020
4 months agolem1 lethal embryo mutant1:
1.10
   M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: March 29th, 2004
Variation: January 4th, 2013
4 months agomagi32402  :
1.07
GRMZM2G057608
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Variation: March 31st, 2005
Gene Model: February 14th, 2019
4 months agoIDP2420  :
1.01
GRMZM2G176820
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Variation: March 31st, 2005
Gene Model: February 10th, 2019
4 months agoIDP644  :
1.07
GRMZM2G025855
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Variation: March 31st, 2005
Gene Model: February 14th, 2019
4 months agoIDP810  :
1.02
GRMZM2G164965
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Variation: April 10th, 2021
Gene Model: February 11th, 2019
4 months agoIDP3811  :
1.01
GRMZM2G119471
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Variation: April 9th, 2021
Gene Model: April 9th, 2021
4 months agoIDP483  :
4.01
GRMZM2G165208
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Variation: March 31st, 2005
Gene Model: April 11th, 2020
4 months agoIDP486  :
5.03
GRMZM2G026216
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Variation: March 31st, 2005
Gene Model: May 8th, 2020
4 months agoIDP758  :
5.05
GRMZM2G061938
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Variation: March 31st, 2005
Gene Model: May 22nd, 2020
4 months agoIDP65  :
9.07
GRMZM2G150058
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Variation: March 31st, 2005
Gene Model: February 3rd, 2020
4 months agoIDP756  :
9.04
GRMZM2G007103
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Variation: September 25th, 2007
Gene Model: January 22nd, 2019
4 months agopdh3 pyruvate dehydrogenase3:
2.07
GRMZM2G097226
Yi-Hsuan Lin et al. 2023. Exogenous Methylglyoxal Alleviates Drought-Induced ''Plant Diabetes'' and Leaf Senescence in Maize. J Exp Bot. :doi: 10.1093/jxb/erad503.     Reference: December 21st, 2023
Gene Product: February 14th, 2008
Variation: February 14th, 2008
Gene Model: April 10th, 2015
4 months agorpl15b 60S ribosomal protein L15:
7.03
GRMZM2G180724
M Regina Scarpin et al. 2022. An updated nomenclature for plant ribosomal protein genes. Plant Cell. :doi: 10.1093/plcell/koac333.     Reference: December 21st, 2023
Gene Product: September 1st, 2003
Variation: June 2nd, 2013
Gene Model: July 28th, 2016
4 months agoLOC100502532  :
 
   Tingru Zeng et al. 2017. The Cloning of ZmCLCa Gene in Maize and Its Functional Verification of Nitrogen Absorption J Plant Genet Res. 18:112-116.   AT5G40890 (TAIR) Reference: December 19th, 2023
Gene Product: November 30th, 2021
4 months agoclc1 chloride channel1:
1.09
GRMZM2G397836
Lulu Liu et al. 2024. The Role of Chloride Channels in Plant Responses to NaCl Int J Mol Sci. 25:19.   AT5G26240 (TAIR) Reference: December 19th, 2023
Gene Product: November 30th, 2021
Gene Model: April 10th, 2021
4 months agodek1 defective kernel1:
1.03
   Lid, SE et al. 2002. The defective kernel 1 (dek1) gene required for aleurone cell development in the endosperm of maize grains encodes a membrane protein of the calpain gene superfamily. Proc Natl Acad Sci, USA 99:5460-5465     Reference: December 19th, 2023
Gene Product: September 1st, 2003
Variation: February 18th, 2022
4 months agozmm31 Zea mays MADS31:
5.01
GRMZM2G071620
Binghao Zhao et al. 2023. Genetic basis of maize stalk strength decoded via linkage and association mapping. Plant J. :doi: 10.1111/tpj.16583.     Reference: December 19th, 2023
Variation: August 7th, 2008
Gene Model: July 2nd, 2014
4 months agorfz1 rat frizzled homolog1:
 
GRMZM2G084812
Binghao Zhao et al. 2023. Genetic basis of maize stalk strength decoded via linkage and association mapping. Plant J. :doi: 10.1111/tpj.16583.     Reference: December 19th, 2023
Gene Product: September 1st, 2003
Variation: December 30th, 2010
Gene Model: November 29th, 2017
4 months agopyrd1 pyrimidine deaminase1:
1.01
GRMZM2G320099
Binghao Zhao et al. 2023. Genetic basis of maize stalk strength decoded via linkage and association mapping. Plant J. :doi: 10.1111/tpj.16583.     Reference: December 19th, 2023
Gene Product: January 29th, 2013
Variation: June 24th, 2016
Gene Model: January 29th, 2013
4 months agostiff1 stiff stalk1:
 
GRMZM2G360081
Binghao Zhao et al. 2023. Genetic basis of maize stalk strength decoded via linkage and association mapping. Plant J. :doi: 10.1111/tpj.16583.   AT1G30950 (TAIR)
LOC_Os06g45460 (MSU/TIGR)
Os06g0665400 (Gramene)
Reference: December 19th, 2023
Gene Product: April 27th, 2022
Variation: November 5th, 2019
Gene Model: November 5th, 2019
4 months agomate29 multidrug and toxic compound extrusion29:
 
   Liang, XY et al. 2023. Designing salt stress-resilient crops: Current progress and future challenges. J Integr Plant Biol. :doi: 10.1111/jipb.13599.     Reference: December 18th, 2023
Gene Product: August 17th, 2015
4 months agopx22 peroxidase22:
7.00
   Liang, XY et al. 2023. Designing salt stress-resilient crops: Current progress and future challenges. J Integr Plant Biol. :doi: 10.1111/jipb.13599.     Reference: December 18th, 2023
Gene Product: September 18th, 2015
4 months agobnlg1176a  :
8.05
GRMZM2G375222
Liu, BB et al. 2023. Heritable changes of epialleles near genes in maize can be triggered in the absence of CHH methylatio Plant Physiol. :doi: 10.1093/plphys/kiad668.     Reference: December 18th, 2023
Variation: September 1st, 2003
Gene Model: September 19th, 2018
4 months agormr1 required to maintain repression1:
6.07
   Liu, BB et al. 2023. Heritable changes of epialleles near genes in maize can be triggered in the absence of CHH methylatio Plant Physiol. :doi: 10.1093/plphys/kiad668.     Reference: December 18th, 2023
Gene Product: April 30th, 2008
Variation: May 10th, 2013
4 months agohb102 Homeobox-transcription factor 102:
1.02
GRMZM2G139963
Jiao, P et al. 2023. Zmhdz9, an HD-Zip transcription factor, promotes drought stress resistance in maize by modulating ABA and lignin accumulation Int J Biol Macromol. :doi: 10.1016/j.ijbiomac.2023.128849.     Reference: December 18th, 2023
Variation: September 1st, 2003
Gene Model: March 9th, 2016
4 months agohp2 histidine-containing phosphotransfer protein2:
2.06
GRMZM2G014154
Liang, XY et al. 2023. Designing salt stress-resilient crops: Current progress and future challenges. J Integr Plant Biol. :doi: 10.1111/jipb.13599.     Reference: December 18th, 2023
Gene Product: September 1st, 2003
Variation: June 26th, 2014
Gene Model: June 26th, 2014
4 months agotcptf19 TCP-transcription factor 19:
 
   Jiao, P et al. 2023. Zmhdz9, an HD-Zip transcription factor, promotes drought stress resistance in maize by modulating ABA and lignin accumulation Int J Biol Macromol. :doi: 10.1016/j.ijbiomac.2023.128849.     Reference: December 18th, 2023
Gene Product: September 27th, 2019
4 months agophyA1 phytochromeA1:
1.10
GRMZM2G157727
Cao, Y et al. 2023. Molecular characterization and functional analyses of maize phytochrome A photoreceptors. Plant Physiol. :doi: 10.1093/plphys/kiad667.     Reference: December 18th, 2023
Gene Product: June 30th, 2009
Variation: September 25th, 2007
Gene Model: August 13th, 2014
4 months agogbp2 GTP binding protein2:
1.09
GRMZM2G045314
Liang, XY et al. 2023. Designing salt stress-resilient crops: Current progress and future challenges. J Integr Plant Biol. :doi: 10.1111/jipb.13599.     Reference: December 18th, 2023
Gene Product: May 1st, 2018
Variation: December 19th, 2019
Gene Model: July 27th, 2016
4 months agosdg105 set domain gene105:
8.05 - 8.05
   Liu, BB et al. 2023. Heritable changes of epialleles near genes in maize can be triggered in the absence of CHH methylatio Plant Physiol. :doi: 10.1093/plphys/kiad668.     Reference: December 18th, 2023
Gene Product: June 30th, 2017
Variation: June 29th, 2017
4 months agoago4a argonaute4a:
 
GRMZM2G589579
Liu, BB et al. 2023. Heritable changes of epialleles near genes in maize can be triggered in the absence of CHH methylatio Plant Physiol. :doi: 10.1093/plphys/kiad668.     Reference: December 18th, 2023
Gene Product: August 12th, 2016
Gene Model: August 13th, 2016
4 months agoago6 argonaute6:
 
GRMZM2G347402
Liu, BB et al. 2023. Heritable changes of epialleles near genes in maize can be triggered in the absence of CHH methylatio Plant Physiol. :doi: 10.1093/plphys/kiad668.     Reference: December 18th, 2023
Gene Product: August 12th, 2016
Gene Model: August 13th, 2016
4 months agolac9 laccase9:
 
GRMZM2G132169
Liang, XY et al. 2023. Designing salt stress-resilient crops: Current progress and future challenges. J Integr Plant Biol. :doi: 10.1111/jipb.13599.     Reference: December 18th, 2023
Gene Product: March 31st, 2018
Gene Model: September 28th, 2016
4 months agonc1 Na+ content1:
 
GRMZM2G047616
Liang, XY et al. 2023. Designing salt stress-resilient crops: Current progress and future challenges. J Integr Plant Biol. :doi: 10.1111/jipb.13599.     Reference: December 18th, 2023
Gene Product: November 15th, 2017
Variation: November 15th, 2017
Gene Model: November 15th, 2017
4 months agonc2 Na+ content2:
 
GRMZM2G135674
Liang, XY et al. 2023. Designing salt stress-resilient crops: Current progress and future challenges. J Integr Plant Biol. :doi: 10.1111/jipb.13599.     Reference: December 18th, 2023
Gene Product: November 15th, 2017
Gene Model: November 15th, 2017
4 months agonhx7 Na+/H+ antiporter 7:
 
GRMZM2G098494
Liang, XY et al. 2023. Designing salt stress-resilient crops: Current progress and future challenges. J Integr Plant Biol. :doi: 10.1111/jipb.13599.   AT1G14660 (TAIR) Reference: December 18th, 2023
Gene Product: April 26th, 2021
Gene Model: August 20th, 2018
4 months agolac18 laccase18:
 
GRMZM2G388587
Liang, XY et al. 2023. Designing salt stress-resilient crops: Current progress and future challenges. J Integr Plant Biol. :doi: 10.1111/jipb.13599.     Reference: December 18th, 2023
Gene Product: March 31st, 2018
Gene Model: March 3rd, 2020
4 months agonhx9 Na+/H+ antiporter 9:
 
GRMZM2G171507
Liang, XY et al. 2023. Designing salt stress-resilient crops: Current progress and future challenges. J Integr Plant Biol. :doi: 10.1111/jipb.13599.     Reference: December 18th, 2023
Gene Product: April 26th, 2021
Gene Model: March 23rd, 2020
4 months agocyp40 cytochrome P450 40:
 
GRMZM2G013956
Liang, XY et al. 2023. Designing salt stress-resilient crops: Current progress and future challenges. J Integr Plant Biol. :doi: 10.1111/jipb.13599.     Reference: December 18th, 2023
Gene Product: December 30th, 2022
Gene Model: December 3rd, 2020
4 months agoGRMZM2G071119  :
 
GRMZM2G071119
Liang, XY et al. 2023. Designing salt stress-resilient crops: Current progress and future challenges. J Integr Plant Biol. :doi: 10.1111/jipb.13599.     Reference: December 18th, 2023
Gene Product: November 30th, 2021
Gene Model: May 3rd, 2021
4 months agostl1 salt-tolerant locus1:
 
GRMZM2G472278
Liang, XY et al. 2023. Designing salt stress-resilient crops: Current progress and future challenges. J Integr Plant Biol. :doi: 10.1111/jipb.13599.     Reference: December 18th, 2023
Gene Product: April 25th, 2022
Variation: April 25th, 2022
Gene Model: April 25th, 2022
4 months agocbl4 calcineurin B-like2:
6.06
GRMZM2G001221
Liang, XY et al. 2023. Designing salt stress-resilient crops: Current progress and future challenges. J Integr Plant Biol. :doi: 10.1111/jipb.13599.     Reference: December 18th, 2023
Gene Product: October 19th, 2016
Gene Model: October 19th, 2016
4 months agocgt2 C-glucosyl transferase2:
6.05
   Liang, XY et al. 2023. Designing salt stress-resilient crops: Current progress and future challenges. J Integr Plant Biol. :doi: 10.1111/jipb.13599.     Reference: December 18th, 2023
Gene Product: November 18th, 2020
Variation: September 25th, 2007
4 months agocl54662_1  :
3.09
   Leyla Nazari et al. 2023. Identification of biomarker genes from multiple studies for abiotic stress in maize through machine learning J Biosciences. 49:1.     Reference: December 16th, 2023
Variation: September 25th, 2007
4 months agohrg1 hydroxyproline rich glycoprotein1:
2.04
GRMZM2G168651
Leyla Nazari et al. 2023. Identification of biomarker genes from multiple studies for abiotic stress in maize through machine learning J Biosciences. 49:1.     Reference: December 16th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: February 6th, 2018
4 months agoabh2 abscisic acid 8'-hydroxylase2:
 
GRMZM2G126505
Dating Zhong et al. 2023. Targeted A-to-T and A-to-C base replacement in maize using an optimized adenine base editor Plant Biotechnol J. :doi: 10.1111/pbi.14256.     Reference: December 16th, 2023
Gene Product: February 15th, 2013
Variation: September 1st, 2011
Gene Model: February 15th, 2013
4 months agoIDP183  :
2.05
GRMZM2G152089
Leyla Nazari et al. 2023. Identification of biomarker genes from multiple studies for abiotic stress in maize through machine learning J Biosciences. 49:1.     Reference: December 16th, 2023
Variation: March 31st, 2005
Gene Model: February 19th, 2019
4 months agobhlh202 bHLH-transcription factor 202:
 
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Gene Product: September 14th, 2016
4 months agobhlh204 bHLH-transcription factor 204:
 
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Gene Product: September 14th, 2016
Variation: October 24th, 2022
4 months agobhlh190 bHLH-transcription factor 190:
 
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Gene Product: September 14th, 2016
4 months agobhlh148 bHLH-transcription factor 148:
2.02
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Variation: September 25th, 2007
4 months agocsu845  :
3.09
GRMZM2G364528
Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Variation: September 1st, 2003
Gene Model: March 23rd, 2018
4 months agobhlh19 bHLH-transcription factor 19:
8.01 - 8.02
GRMZM2G066057
Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Variation: September 1st, 2003
Gene Model: September 16th, 2018
4 months agobnlg1754  :
3.09
GRMZM2G087769
Carvalho, VP et al. 2023. Recurrent selection effects on the genetic structure of maize landrace assessed by SSR markers Cuad Edu Desarrollo. 15:16063–16081.     Reference: December 15th, 2023
Variation: September 1st, 2003
Gene Model: March 22nd, 2018
4 months agobnlg2323  :
5.04
GRMZM2G121366
Carvalho, VP et al. 2023. Recurrent selection effects on the genetic structure of maize landrace assessed by SSR markers Cuad Edu Desarrollo. 15:16063–16081.     Reference: December 15th, 2023
Variation: September 1st, 2003
Gene Model: June 29th, 2018
4 months agobhlh104  :
3.04
GRMZM5G821755
Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Variation: April 5th, 2018
Gene Model: March 30th, 2018
4 months agoumc1252  :
2.09
GRMZM2G023585
Carvalho, VP et al. 2023. Recurrent selection effects on the genetic structure of maize landrace assessed by SSR markers Cuad Edu Desarrollo. 15:16063–16081.     Reference: December 15th, 2023
Variation: May 5th, 2021
Gene Model: February 16th, 2018
4 months agoumc1352a  :
6.05
GRMZM2G032896
Carvalho, VP et al. 2023. Recurrent selection effects on the genetic structure of maize landrace assessed by SSR markers Cuad Edu Desarrollo. 15:16063–16081.     Reference: December 15th, 2023
Variation: August 26th, 2018
Gene Model: August 27th, 2018
4 months agoumc1354  :
1.00
   Carvalho, VP et al. 2023. Recurrent selection effects on the genetic structure of maize landrace assessed by SSR markers Cuad Edu Desarrollo. 15:16063–16081.     Reference: December 15th, 2023
Variation: September 1st, 2003
4 months agoumc1394  :
3.01
GRMZM2G097959
Carvalho, VP et al. 2023. Recurrent selection effects on the genetic structure of maize landrace assessed by SSR markers Cuad Edu Desarrollo. 15:16063–16081.     Reference: December 15th, 2023
Variation: September 1st, 2003
Gene Model: April 2nd, 2018
4 months agoumc1486  :
1.07
GRMZM2G389567
Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Variation: September 1st, 2003
Gene Model: November 10th, 2016
4 months agoumc1524  :
5.06
AC185464.3_FG003
Carvalho, VP et al. 2023. Recurrent selection effects on the genetic structure of maize landrace assessed by SSR markers Cuad Edu Desarrollo. 15:16063–16081.     Reference: December 15th, 2023
Variation: September 1st, 2003
Gene Model: July 12th, 2018
4 months agoumc1538a  :
1.11
GRMZM5G831951
Carvalho, VP et al. 2023. Recurrent selection effects on the genetic structure of maize landrace assessed by SSR markers Cuad Edu Desarrollo. 15:16063–16081.     Reference: December 15th, 2023
Variation: September 1st, 2003
Gene Model: November 16th, 2016
4 months agobhlh10 bHLH-transcription factor 10:
 
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Gene Product: September 14th, 2016
Variation: December 17th, 2018
4 months agobhlh12 bHLH-transcription factor 12:
 
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Gene Product: September 14th, 2016
4 months agobhlh121 bHLH-transcription factor 121:
 
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Variation: March 20th, 2023
4 months agobhlh136 bHLH-transcription factor 136:
 
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Variation: March 17th, 2021
4 months agobhlh172 bHLH-transcription factor 172:
 
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.   AT1G51070 (TAIR) Reference: December 15th, 2023
Gene Product: September 14th, 2016
4 months agobhlh175 bHLH-transcription factor 175:
 
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.   AT3G26744 (TAIR) Reference: December 15th, 2023
Gene Product: September 14th, 2016
4 months agobhlh35 bHLH-transcription factor 35:
 
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Variation: May 10th, 2016
4 months agobhlh36 bHLH-transcription factor 36:
 
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Variation: August 9th, 2018
4 months agobhlh52 bHLH-transcription factor 52:
 
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Gene Product: September 14th, 2016
4 months agobhlh59 bHLH-transcription factor 59:
 
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Gene Product: September 14th, 2016
4 months agobhlh61 bHLH-transcription factor 61:
 
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Gene Product: September 14th, 2016
4 months agobhlh68 bHLH-transcription factor 68:
 
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Variation: August 5th, 2022
4 months agobhlh82 bHLH-transcription factor 82:
 
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Gene Product: September 14th, 2016
Variation: August 30th, 2019
4 months agobhlh85 bHLH-transcription factor 85:
 
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Gene Product: September 14th, 2016
4 months agobhlh87 bHLH-transcription factor 87:
 
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Gene Product: September 14th, 2016
4 months agobhlh88 bHLH-transcription factor 88:
 
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Gene Product: September 14th, 2016
4 months agobhlh93 bHLH-transcription factor 93:
 
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Gene Product: September 14th, 2016
4 months agobhlh97 bHLH-transcription factor 97:
9.07
AC149829.2_FG004
Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Variation: September 1st, 2003
Gene Model: March 8th, 2018
4 months agoumc1961  :
2.02
GRMZM2G155217
Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Variation: March 17th, 2021
Gene Model: February 27th, 2018
4 months agoumc2227  :
1.04
GRMZM2G412430
Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Variation: January 6th, 2017
Gene Model: January 6th, 2017
4 months agobhlh141 bHLH-transcription factor 141:
4.03
GRMZM2G080168
Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Variation: June 11th, 2018
Gene Model: June 11th, 2018
4 months agoptf1 Pi starvation-induced transcription factor1:
9.01 - 9.02
GRMZM2G024530
Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.   LOC_Os02g35660 (MSU/TIGR)
Os02g0564700 (Gramene)
Reference: December 15th, 2023
Gene Product: September 14th, 2016
Variation: April 23rd, 2011
Gene Model: April 19th, 2011
4 months agobhlh132 bHLH-transcription factor 132:
3.05
GRMZM2G114873
Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Gene Product: September 14th, 2016
Gene Model: September 12th, 2016
4 months agoupb1 upbeat1:
 
GRMZM2G040364
Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.   AT2G47270 (TAIR) Reference: December 15th, 2023
Gene Product: September 14th, 2016
Gene Model: September 22nd, 2018
4 months agolrl3 ljrhl1-like3:
5.08
GRMZM5G832135
Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.   AT5G58010 (TAIR) Reference: December 15th, 2023
Gene Product: September 14th, 2016
Gene Model: December 17th, 2018
4 months agobhlh185 bHLH-transcription factor 185:
 
GRMZM2G350312
Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.   AT3G47640 (TAIR)
LOC_Os03g26210 (MSU/TIGR)
Os03g0379300 (Gramene)
Reference: December 15th, 2023
Gene Product: September 14th, 2016
Gene Model: May 2nd, 2022
4 months agopco129491  :
8.07
   Corinna Thoben et al. 2023. Automatic annotation of the bHLH gene family in plants BMC Genomics. 24:780.     Reference: December 15th, 2023
Variation: September 25th, 2007
4 months agomn7 miniature seed7:
2.04
GRMZM2G018059
Jianrui Li et al. 2023. ZmELP1, an Elongator complex subunit, is required for the maintenance of histone acetylation and RNA Pol II phosphorylation in maize kernels. Plant Biotechnol J. :doi: 10.1111/pbi.14262.     Reference: December 15th, 2023
Gene Product: December 15th, 2023
Variation: December 15th, 2023
Gene Model: February 19th, 2019
4 months agoimpb9 importin beta9:
 
   Huang, X et al. 2023. Maize DDK1 encoding an Importin-4 β protein is essential for seed development and grain filling by mediating nuclear exporting of eIF1A. New Phytol.     Reference: December 14th, 2023
Gene Product: November 15th, 2022
Variation: December 14th, 2023
4 months agocdk3 cyclin-dependent kinase3:
 
   Xinran Gao et al. 2023. Identification of ceRNA-vsiRNA-mRNA network for exploring the mechanism underlying pathogenesis of sugarcane mosaic virus in resistant and susceptible maize inbred lines Phytopathol Res. 5:60.     Reference: December 14th, 2023
Gene Product: October 19th, 2022
4 months agoles8 lesion8:
9.02
   Li, JK et al. 2023. Characterization and fine mapping of a maize lesion mimic mutant (Les8) with enhanced resistance to Curvularia leaf spot and southern leaf blight. Theor Appl Genet. 137:7.     Reference: December 14th, 2023
Variation: September 1st, 2003
4 months agoumc1204  :
 
GRMZM2G164088
Xinran Gao et al. 2023. Identification of ceRNA-vsiRNA-mRNA network for exploring the mechanism underlying pathogenesis of sugarcane mosaic virus in resistant and susceptible maize inbred lines Phytopathol Res. 5:60.     Reference: December 14th, 2023
Variation: September 1st, 2003
Gene Model: February 15th, 2020
4 months agoarftf11 ARF-transcription factor 11:
 
   Xinran Gao et al. 2023. Identification of ceRNA-vsiRNA-mRNA network for exploring the mechanism underlying pathogenesis of sugarcane mosaic virus in resistant and susceptible maize inbred lines Phytopathol Res. 5:60.     Reference: December 14th, 2023
Gene Product: January 29th, 2022
Variation: July 7th, 2017
4 months agohb13 Homeobox-transcription factor 13:
 
   Gallagher, JP et al. 2023. GRASSY TILLERS1 (GT1) and SIX-ROWED SPIKE1 (VRS1) homologs share conserved roles in growth repression Proc Natl Acad Sci, USA. 120:e2311961120.     Reference: December 14th, 2023
Variation: December 14th, 2023
4 months agoftr1 ferredoxin-thioredoxin1:
9.01
GRMZM2G122793
Li, JK et al. 2023. Characterization and fine mapping of a maize lesion mimic mutant (Les8) with enhanced resistance to Curvularia leaf spot and southern leaf blight. Theor Appl Genet. 137:7.     Reference: December 14th, 2023
Gene Product: August 31st, 2020
Variation: September 2nd, 2015
Gene Model: September 2nd, 2015
4 months agosdg127 set domain gene127:
 
GRMZM2G473138
Shu, GP et al. 2023. Identification of QTNs, QTN-by-environment interactions for plant height and ear height in maize multi-environment GWAS. Frontiers in Plant Science. 14:1284403.     Reference: December 14th, 2023
Gene Product: June 30th, 2017
Gene Model: June 29th, 2017
4 months agomkk2 mitogen-activated protein kinase kinase2:
 
GRMZM2G400470
Li, JK et al. 2023. Characterization and fine mapping of a maize lesion mimic mutant (Les8) with enhanced resistance to Curvularia leaf spot and southern leaf blight. Theor Appl Genet. 137:7.   AT4G29810 (TAIR) Reference: December 14th, 2023
Gene Product: July 12th, 2013
Gene Model: September 22nd, 2018
4 months agosaur76 small auxin up RNA76:
 
GRMZM2G425072
Shu, GP et al. 2023. Identification of QTNs, QTN-by-environment interactions for plant height and ear height in maize multi-environment GWAS. Frontiers in Plant Science. 14:1284403.     Reference: December 14th, 2023
Gene Product: November 26th, 2021
Gene Model: November 15th, 2019
4 months agogogat1 glutamate synthase1:
 
GRMZM2G077054
Stefania Fortunato et al. 2023. The Role of Glutamine Synthetase (GS) and Glutamate Synthase (GOGAT) in the Improvement of Nitrogen Use Efficiency in Cereals Biomolecules. 13:1771.     Reference: December 14th, 2023
Gene Product: January 2nd, 2022
Gene Model: January 2nd, 2022
4 months agoeif1 eukaryotic initiation factor1:
 
GRMZM2G101859
Huang, X et al. 2023. Maize DDK1 encoding an Importin-4 β protein is essential for seed development and grain filling by mediating nuclear exporting of eIF1A. New Phytol.     Reference: December 14th, 2023
Gene Product: March 4th, 2022
Gene Model: March 4th, 2022
4 months agohug1 heat up-regulated gene1:
 
GRMZM2G103179
Li, JK et al. 2023. Characterization and fine mapping of a maize lesion mimic mutant (Les8) with enhanced resistance to Curvularia leaf spot and southern leaf blight. Theor Appl Genet. 137:7.     Reference: December 14th, 2023
Gene Product: June 17th, 2022
Variation: June 17th, 2022
Gene Model: June 17th, 2022
4 months agoatpB (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agondhB-II (cp) nicotinamide adenine dinucleotide dehydrogenaseB2:
 
GRMZM5G810298
Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
Gene Model: June 2nd, 2020
4 months agoatpE (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agondhF (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agopsbK (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agopsbI (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnT (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnD (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnE (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agopsbM (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agondhJ (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agoORF185 (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agocemA (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agopsbT (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agopsbN (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agoinfA (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agoORF321 (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agondhG (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agomus1 MutS homolog1:
7.04
GRMZM2G056075
Xinran Gao et al. 2023. Whole-transcriptome characterization and functional analysis of lncRNA-miRNA-mRNA regulatory networks responsive to sugarcane mosaic virus in maize resistant and susceptible inbred lines Int J Biol Macromol. :doi: 10.1016/j.ijbiomac.2023.128685.     Reference: December 13th, 2023
Gene Product: August 15th, 2005
Variation: January 28th, 2013
Gene Model: August 5th, 2015
4 months agotpi5 triose phosphate isomerase5:
8.07 - 8.08
GRMZM2G146206
Xinran Gao et al. 2023. Whole-transcriptome characterization and functional analysis of lncRNA-miRNA-mRNA regulatory networks responsive to sugarcane mosaic virus in maize resistant and susceptible inbred lines Int J Biol Macromol. :doi: 10.1016/j.ijbiomac.2023.128685.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
Gene Model: January 15th, 2015
4 months agochn1 chitinase chem1:
3.08
GRMZM2G453805
Guo, HL et al. 2023. Phenotypic and Proteomic Insights into Differential Cadmium Accumulation in Maize Kernels Genes. 14:2204.     Reference: December 13th, 2023
Gene Product: May 31st, 2021
Variation: November 30th, 2007
Gene Model: June 21st, 2015
4 months agocta1 chitinase A1:
2.04
   Guo, HL et al. 2023. Phenotypic and Proteomic Insights into Differential Cadmium Accumulation in Maize Kernels Genes. 14:2204.     Reference: December 13th, 2023
Gene Product: May 31st, 2021
Variation: September 1st, 2003
4 months agosbp25 SBP-transcription factor 25:
 
   Xinran Gao et al. 2023. Whole-transcriptome characterization and functional analysis of lncRNA-miRNA-mRNA regulatory networks responsive to sugarcane mosaic virus in maize resistant and susceptible inbred lines Int J Biol Macromol. :doi: 10.1016/j.ijbiomac.2023.128685.     Reference: December 13th, 2023
Gene Product: July 5th, 2019
4 months agoatpH (cp) ATPaseH:
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: October 21st, 2003
4 months agopsbB (cp)  :
 
GRMZM5G808939
Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
Gene Model: June 16th, 2020
4 months agopsbF (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agopetD (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agopetB (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agopetA (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agopetL (cp) ORF of 31 residues:
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agopetG (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agopsaC (cp) psaC:
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agondhD (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnA(UGC)-I (cp) plastid Ala tDNA isoacceptor (UGC):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnI(GAU)-I (cp) plastid Ile tDNA isoacceptor (GAU):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnfM(CAU) (cp) plastid initiator Met tDNA isoacceptor (CAU):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnG(GCC) (cp) plastid Gly tDNA isoacceptor (GCC):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnG(UCC) (cp) plastid Gly tDNA isoacceptor (UCC):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnR(UCU) (cp) plastid Arg tDNA isoacceptor (UCU):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnS(GCU) (cp) plastid Ser tDNA isoacceptor (GCU):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnP(UGG) (cp) plastid Pro tDNA isoacceptor (UGG):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnW(CCA) (cp) plastid Trp tDNA isoacceptor (CCA):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnS(GGA) (cp) plastid Ser tDNA isoacceptor (GGA):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnF(GAA) (cp) plastid Phe tDNA isoacceptor (GAA):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnT(UGU) (cp) plastid Thr tDNA isoacceptor (UGU):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnL(CAA)-I (cp) plastid Leu tDNA isoacceptor (CAA):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnV(UAC) (cp) plastid Val tDNA isoacceptor (UAC):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnL(UAA) (cp) plastid Leu tDNA isoacceptor (UAA):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnS(UGA) (cp) plastid Ser tDNA isoacceptor (UGA):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnR(ACG)-I (cp) plastid Arg tDNA isoacceptor (ACG):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnN(GUU)-I (cp) plastid Asn tDNA isoacceptor (GUU):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnH(GUG)-I (cp) plastid His tDNA isoacceptor (GUG)a:
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnV(GAC)-I (cp) plastid Val tDNA isoacceptor (GAC):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agondhE (cp) NADH-plastoquinone oxidoreductase, chain 4L, plast:
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agondhA (cp) NADH-plastoquinone oxidoreductase chain 1, plastid:
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agorps7-I (cp) 30S ribosomal protein S7 gene:
 
GRMZM5G806488
Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
Gene Model: June 23rd, 2021
4 months agorps7-II (cp) 30S ribosomal protein S7 gene:
 
GRMZM5G844628
Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
Gene Model: June 23rd, 2021
4 months agorpl22 (cp) 50S ribosomal protein L22 gene:
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agorpl16 (cp) 50S ribosomal protein L16 gene:
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agorpoA (cp) Plastid DNA-directed RNA polymerase alpha chain:
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agopsbH (cp)  :
 
GRMZM5G831399
Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
Gene Model: September 3rd, 2021
4 months agorpl20 (cp) 50S ribosomal protein L20 gene:
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agopsbE (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agopsbL (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agondhC (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agondhK (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agorps14 (cp) 30S ribosomal protein S14 gene:
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agoatpA (cp)  :
 
GRMZM5G875287
Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
Gene Model: July 7th, 2022
4 months agoatpF (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agoatpI (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agorpoC2 (cp) plastid DNA-directed RNA polymerase beta'' chain:
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agorpoC1 (cp) plastid DNA-directed RNA polymerase beta' chain:
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agorpoB (cp) plastid DNA-directed RNA polymerase beta chain:
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agopsbC (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnA(UGC)-II (cp) plastid Ala tDNA isoacceptor (UGC):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnH(GUG)-II (cp) plastid His tDNA isoacceptor (GUG):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnI(GAU)-II (cp) plastid Ile tDNA isoacceptor (GAU):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnL(CAA)-II (cp) plastid Leu tDNA isoacceptor (CAA):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnN(GUU)-II (cp) plastid Asn tDNA isoacceptor (GUU):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnR(ACG)-II (cp) plastid Arg tDNA isoacceptor (ACG):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agotrnV(GAC)-II (cp) plastid Val tDNA isoacceptor (GAC):
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agondhB-I (cp) nicotinamide adenine dinucleotide dehydrogenaseB1:
 
GRMZM5G876106
Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
Gene Model: June 2nd, 2020
4 months agorps3 (cp) 30S ribosomal protein S3 gene:
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agorpl32 (cp) 50S ribosomal protein L32 gene:
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agondhI (cp)  :
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agopsaJ (cp) photosystemI, subunitJ:
 
   Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
4 months agopsbJ (cp)  :
 
GRMZM5G834496
Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
Gene Model: December 26th, 2016
4 months agocbp2 calmodulin binding protein2:
4.09
GRMZM2G018837
Xinran Gao et al. 2023. Whole-transcriptome characterization and functional analysis of lncRNA-miRNA-mRNA regulatory networks responsive to sugarcane mosaic virus in maize resistant and susceptible inbred lines Int J Biol Macromol. :doi: 10.1016/j.ijbiomac.2023.128685.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
Variation: September 26th, 2012
Gene Model: July 27th, 2016
4 months agohmt4 homocysteine S-methyltransferase4:
3.07
GRMZM2G039166
Guo, HL et al. 2023. Phenotypic and Proteomic Insights into Differential Cadmium Accumulation in Maize Kernels Genes. 14:2204.     Reference: December 13th, 2023
Gene Product: July 19th, 2004
Variation: September 25th, 2007
Gene Model: March 3rd, 2015
4 months agopdi8 protein disulfide isomerase8:
7.02
GRMZM2G389173
Guo, HL et al. 2023. Phenotypic and Proteomic Insights into Differential Cadmium Accumulation in Maize Kernels Genes. 14:2204.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
Variation: January 13th, 2016
Gene Model: December 18th, 2015
4 months agoprdx1 peroxiredoxin1:
 
GRMZM2G129761
Guo, HL et al. 2023. Phenotypic and Proteomic Insights into Differential Cadmium Accumulation in Maize Kernels Genes. 14:2204.     Reference: December 13th, 2023
Gene Product: February 4th, 2021
Gene Model: June 22nd, 2021
4 months agorps19-III (cp) chloroplast 30S ribosomal protein S19:
 
GRMZM2G427404
Hope Y Hua et al. 2023. RIP-Seq analysis of non-PPR chloroplast editing factors reveals broad RNA interactions and enrichment of less efficiently translated RNAs by OZ1 and ORRM1 complexes. Plant J. :doi: 10.1111/tpj.16581.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
Gene Model: August 28th, 2021
4 months agopx20 peroxidase20:
 
GRMZM2G320269
Guo, HL et al. 2023. Phenotypic and Proteomic Insights into Differential Cadmium Accumulation in Maize Kernels Genes. 14:2204.     Reference: December 13th, 2023
Gene Product: September 18th, 2015
Gene Model: September 1st, 2021
4 months agommt1 methionine S-methyltransferase1:
8.05
GRMZM2G098031
Xinran Gao et al. 2023. Whole-transcriptome characterization and functional analysis of lncRNA-miRNA-mRNA regulatory networks responsive to sugarcane mosaic virus in maize resistant and susceptible inbred lines Int J Biol Macromol. :doi: 10.1016/j.ijbiomac.2023.128685.     Reference: December 13th, 2023
Gene Product: October 25th, 2019
Variation: September 20th, 2018
Gene Model: September 20th, 2018
4 months agocel10 cellulase10:
8.03
GRMZM2G331566
Guo, HL et al. 2023. Phenotypic and Proteomic Insights into Differential Cadmium Accumulation in Maize Kernels Genes. 14:2204.     Reference: December 13th, 2023
Gene Product: March 20th, 2023
Gene Model: June 24th, 2022
4 months agomsf1 mRNA splicing factor1:
4.00
GRMZM2G057450
Xinran Gao et al. 2023. Whole-transcriptome characterization and functional analysis of lncRNA-miRNA-mRNA regulatory networks responsive to sugarcane mosaic virus in maize resistant and susceptible inbred lines Int J Biol Macromol. :doi: 10.1016/j.ijbiomac.2023.128685.     Reference: December 13th, 2023
Gene Product: September 1st, 2003
Variation: January 27th, 2013
Gene Model: July 28th, 2016
4 months agowakl54 wall associated kinase like54:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agorlk12 receptor-like protein kinase12:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: July 10th, 2019
Variation: December 29th, 2022
4 months agorlk13 receptor-like protein kinase13:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: July 10th, 2019
4 months agoZm00001eb257480  :
 
   Duan, HY et al. 2023. Identification of novel loci associated with starch content in maize kernels by a genome-wide association study using an enlarged SNP panel Mol Breed. 43:91.     Reference: December 12th, 2023
Gene Product: November 27th, 2023
4 months agowakl3 wall-associated receptor kinase-like3:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl1 wall associated kinase like1:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl4 wall associated kinase like4:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl6 wall associated kinase like6:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl8 wall associated kinase like8:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl9 wall associated kinase like9:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl10 wall associated kinase like10:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl13 wall associated kinase like13:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl15 wall associated kinase like15:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl17 wall associated kinase like17:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl18 wall associated kinase like18:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl20 wall associated kinase like20:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl23 wall associated kinase like23:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl26 wall associated kinase like26:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl27 wall associated kinase like27:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl28 wall associated kinase like28:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl29 wall associated kinase like29:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl31 wall associated kinase like31:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl32 wall associated kinase like32:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl33 wall associated kinase like33:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl34 wall associated kinase like34:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl35 wall associated kinase like35:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl36 wall associated kinase like36:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl38 wall associated kinase like38:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl41 wall associated kinase like41:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl43 wall associated kinase like43:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl45 wall associated kinase like45:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl46 wall associated kinase like46:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl48 wall associated kinase like48:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl51 wall associated kinase like51:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl55 wall associated kinase like55:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl56 wall associated kinase like56:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl57 wall associated kinase like57:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agowakl58 wall associated kinase like58:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agosrk1 S-receptor kinase1:
2.09
AC217293.3_FG007
Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: July 10th, 2019
Variation: September 1st, 2003
Gene Model: July 1st, 2015
4 months agowakl37 wall associated kinase like37:
6.07
GRMZM2G017157
Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
Gene Model: July 3rd, 2021
4 months agowakl14 wall associated kinase like14:
2.04
GRMZM2G145045
Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
Gene Model: April 24th, 2021
4 months agowakl50 wall associated kinase like50:
8.02
GRMZM2G172368
Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
Gene Model: July 9th, 2021
4 months agowakl22 wall associated kinase like22:
3.04
GRMZM2G013790
Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
Gene Model: May 10th, 2021
4 months agowakl2a wall associated kinase like2a:
1.06
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
4 months agoclx2 calnexin homolog2:
10.04
GRMZM2G022180
Duan, HY et al. 2023. Identification of novel loci associated with starch content in maize kernels by a genome-wide association study using an enlarged SNP panel Mol Breed. 43:91.     Reference: December 12th, 2023
Gene Product: September 1st, 2003
Variation: September 29th, 2015
Gene Model: September 29th, 2015
4 months agobnlg1740  :
6.07
GRMZM2G023133
Duan, HY et al. 2023. Identification of novel loci associated with starch content in maize kernels by a genome-wide association study using an enlarged SNP panel Mol Breed. 43:91.     Reference: December 12th, 2023
Variation: September 1st, 2003
Gene Model: August 29th, 2018
4 months agoptk5 receptor-like kinase4:
8.02
GRMZM2G473511
Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: July 10th, 2019
Gene Model: July 1st, 2015
4 months agoabi35 ABI3-VP1-transcription factor 35:
 
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: January 29th, 2022
4 months agohtn1 Helminthosporium turcicum resistanceN1:
8.06
GRMZM2G164640
Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.   At1g66980 (TAIR)
LOC_Os01g49580 (MSU/TIGR)
Reference: December 12th, 2023
Gene Product: July 10th, 2019
Variation: July 14th, 2015
Gene Model: February 3rd, 2021
4 months agoohp2 opaque2 heterodimerizing protein2:
5.01
   Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: September 1st, 2003
Variation: April 25th, 2015
4 months agowakl2 wall associated kinase like2:
1.06
GRMZM2G115981
Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
Variation: March 21st, 2006
Gene Model: June 7th, 2017
4 months agolrk1 Ser/Thr receptor-like kinase1:
8.02
GRMZM2G064750
Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
Variation: January 8th, 2013
Gene Model: August 21st, 2015
4 months agowakl25 wall associated kinase like25:
 
GRMZM2G028568
Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
Gene Model: May 5th, 2020
4 months agoRSZ20  :
 
GRMZM2G080930
Duan, HY et al. 2023. Identification of novel loci associated with starch content in maize kernels by a genome-wide association study using an enlarged SNP panel Mol Breed. 43:91.     Reference: December 12th, 2023
Gene Product: October 18th, 2023
Gene Model: January 25th, 2021
4 months agorlk8 receptor-like protein kinase8:
 
GRMZM2G144028
Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: July 10th, 2019
Gene Model: February 3rd, 2021
4 months agoaaap38 amino acid/auxin permease38:
 
GRMZM2G080843
Duan, HY et al. 2023. Identification of novel loci associated with starch content in maize kernels by a genome-wide association study using an enlarged SNP panel Mol Breed. 43:91.     Reference: December 12th, 2023
Gene Product: March 31st, 2021
Gene Model: March 30th, 2021
4 months agowakl42 wall associated kinase like42:
 
GRMZM2G333045
Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
Gene Model: April 9th, 2021
4 months agowakl24 wall associated kinase like24:
 
GRMZM2G041544
Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
Gene Model: April 24th, 2021
4 months agosaur62 small auxin up RNA62:
 
GRMZM2G021049
Duan, HY et al. 2023. Identification of novel loci associated with starch content in maize kernels by a genome-wide association study using an enlarged SNP panel Mol Breed. 43:91.     Reference: December 12th, 2023
Gene Product: November 26th, 2021
Gene Model: November 26th, 2021
4 months agonip3b NOD26-like membrane intrinsic protein3b:
 
GRMZM2G358161
Duan, HY et al. 2023. Identification of novel loci associated with starch content in maize kernels by a genome-wide association study using an enlarged SNP panel Mol Breed. 43:91.     Reference: December 12th, 2023
Gene Product: January 27th, 2022
Gene Model: January 27th, 2022
4 months agowakl7 wall associated kinase like7:
 
GRMZM2G059012
Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
Gene Model: March 24th, 2022
4 months agowakl49 wall associated kinase like49:
 
GRMZM2G172396
Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
Gene Model: June 27th, 2022
4 months agodar3 monodehydroascorbate reductase3:
10.03
GRMZM5G828229
Duan, HY et al. 2023. Identification of novel loci associated with starch content in maize kernels by a genome-wide association study using an enlarged SNP panel Mol Breed. 43:91.     Reference: December 12th, 2023
Gene Product: October 15th, 2020
Variation: March 31st, 2005
Gene Model: January 3rd, 2018
4 months agowakl5 wall-associated receptor kinase-like5:
1.06
GRMZM2G134205
Hu, K et al. 2023. Insights into ZmWAKL in maize kernel development: genome-wide investigation and GA-mediated transcription BMC Genomics. 24:760.     Reference: December 12th, 2023
Gene Product: December 7th, 2023
Gene Model: August 25th, 2017
4 months agoFJ184378  :
 
   Lin, YN et al. 2023. A P-type pentatricopeptide repeat protein ZmRF5 promotes 5' region partial cleavages of atp6c transcripts to restore the fertility of CMS-C maize by recruiting a splicing factor. Plant Biotechnol J. :doi: 10.1111/pbi.14263.     Reference: December 11th, 2023
Gene Product: December 27th, 2016
5 months agoglpdh1 glycerol-3-phosphate dehydrogenase1:
 
GRMZM2G155348
Zhu, H et al. 2023. Genetic dissection of maize (Zea maysL.) trace element traits using genome-wide association studies. BMC Plant Biology. 23:631.     Reference: December 8th, 2023
Gene Product: July 12th, 2018
Gene Model: July 11th, 2018
5 months agomagi62468  :
1.12
GRMZM2G023242
Zhu, H et al. 2023. Genetic dissection of maize (Zea maysL.) trace element traits using genome-wide association studies. BMC Plant Biology. 23:631.     Reference: December 8th, 2023
Variation: March 31st, 2005
Gene Model: February 16th, 2019
5 months agocdk2 cyclin-dependent kinase2:
8.04
GRMZM2G149286
Zhu, H et al. 2023. Genetic dissection of maize (Zea maysL.) trace element traits using genome-wide association studies. BMC Plant Biology. 23:631.     Reference: December 8th, 2023
Gene Product: October 19th, 2022
Gene Model: August 30th, 2019
5 months agotps29 terpene synthase29:
 
   Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: December 6th, 2023
5 months agotps30 terpene synthase30:
 
   Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: December 6th, 2023
5 months agotps31 terpene synthase31:
 
   Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: December 6th, 2023
5 months agotps22 terpene synthase22:
 
   Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: December 6th, 2023
5 months agotps16 terpene synthase16:
 
   Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: December 6th, 2023
5 months agotps32 terpene synthase32:
 
   Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: December 6th, 2023
5 months agotps35 terpene synthase35:
 
   Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: December 6th, 2023
5 months agotps25 terpene synthase25:
 
   Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: December 6th, 2023
5 months agotps36 terpene synthase36:
 
   Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: December 6th, 2023
5 months agotps34 terpene synthase34:
 
   Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: December 6th, 2023
5 months agotps33 terpene synthase33:
 
   Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: December 6th, 2023
5 months agodek58 defective kernel58:
 
   Bing Ma et al. 2023. Defective kernel 58 encodes an Rrp15p domain-containing protein essential to ribosome biogenesis and seed development in maize. New Phytol. :doi: 10.1111/nph.19460.     Reference: December 7th, 2023
Gene Product: December 7th, 2023
Variation: December 7th, 2023
5 months agossf1 suppressor of SWI4 1:
 
   Bing Ma et al. 2023. Defective kernel 58 encodes an Rrp15p domain-containing protein essential to ribosome biogenesis and seed development in maize. New Phytol. :doi: 10.1111/nph.19460.     Reference: December 7th, 2023
Gene Product: December 7th, 2023
5 months agowak4 wall-associated receptor kinase4:
 
   Dai, ZK et al. 2023. ZmWAK02 encoding an RD-WAK protein confers maize resistance against gray leaf spot. New Phytol. :doi: 10.1111/nph.19465.     Reference: December 7th, 2023
Gene Product: December 7th, 2023
5 months agotps4 terpene synthase4:
10.03
GRMZM2G117319
Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: September 4th, 2008
Variation: September 4th, 2008
Gene Model: May 28th, 2012
5 months agotps5 terpene synthase5:
10.03
GRMZM2G074309
Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: September 4th, 2008
Variation: September 4th, 2008
Gene Model: May 26th, 2012
5 months agotps26 terpene synthase26:
6.04
GRMZM2G030583
Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: September 5th, 2008
Variation: September 5th, 2008
Gene Model: August 22nd, 2012
5 months agobnlg1079  :
10.03
   Muhammad Ilyas et al. 2023. Association Mapping for Evaluation of Population Structure, Genetic Diversity, and Physiochemical Traits in Drought-Stressed Maize Germplasm Using SSR Markers Plants. 12:4092.     Reference: December 7th, 2023
Variation: September 1st, 2003
5 months agobnlg1484  :
1.03
GRMZM2G019567
Muhammad Ilyas et al. 2023. Association Mapping for Evaluation of Population Structure, Genetic Diversity, and Physiochemical Traits in Drought-Stressed Maize Germplasm Using SSR Markers Plants. 12:4092.     Reference: December 7th, 2023
Variation: September 1st, 2003
Gene Model: July 12th, 2017
5 months agoumc1134  :
7.03
GRMZM2G105253
Muhammad Ilyas et al. 2023. Association Mapping for Evaluation of Population Structure, Genetic Diversity, and Physiochemical Traits in Drought-Stressed Maize Germplasm Using SSR Markers Plants. 12:4092.     Reference: December 7th, 2023
Variation: September 1st, 2003
Gene Model: September 10th, 2018
5 months agosmk501 small kernel 501:
8.01
GRMZM2G007915
Muhammad Ilyas et al. 2023. Association Mapping for Evaluation of Population Structure, Genetic Diversity, and Physiochemical Traits in Drought-Stressed Maize Germplasm Using SSR Markers Plants. 12:4092.     Reference: December 7th, 2023
Gene Product: March 23rd, 2021
Variation: March 23rd, 2021
Gene Model: September 14th, 2018
5 months agothx43 Trihelix-transcription factor 43:
10.03
GRMZM2G110145
Muhammad Ilyas et al. 2023. Association Mapping for Evaluation of Population Structure, Genetic Diversity, and Physiochemical Traits in Drought-Stressed Maize Germplasm Using SSR Markers Plants. 12:4092.     Reference: December 7th, 2023
Gene Product: November 9th, 2021
Variation: September 1st, 2003
Gene Model: December 9th, 2017
5 months agoumc1330  :
10.04
AC225176.2_FG003
Muhammad Ilyas et al. 2023. Association Mapping for Evaluation of Population Structure, Genetic Diversity, and Physiochemical Traits in Drought-Stressed Maize Germplasm Using SSR Markers Plants. 12:4092.     Reference: December 7th, 2023
Variation: September 1st, 2003
Gene Model: December 12th, 2017
5 months agoexpa6 expansin-like6:
1.01
GRMZM2G095968
Muhammad Ilyas et al. 2023. Association Mapping for Evaluation of Population Structure, Genetic Diversity, and Physiochemical Traits in Drought-Stressed Maize Germplasm Using SSR Markers Plants. 12:4092.     Reference: December 7th, 2023
Variation: May 3rd, 2016
Gene Model: May 3rd, 2016
5 months agoumc1608  :
3.04
GRMZM5G871336
Muhammad Ilyas et al. 2023. Association Mapping for Evaluation of Population Structure, Genetic Diversity, and Physiochemical Traits in Drought-Stressed Maize Germplasm Using SSR Markers Plants. 12:4092.     Reference: December 7th, 2023
Variation: September 1st, 2003
Gene Model: April 2nd, 2018
5 months agoprp17 pathogenesis-related protein17:
8.03
GRMZM2G156857
Muhammad Ilyas et al. 2023. Association Mapping for Evaluation of Population Structure, Genetic Diversity, and Physiochemical Traits in Drought-Stressed Maize Germplasm Using SSR Markers Plants. 12:4092.     Reference: December 7th, 2023
Gene Product: December 12th, 2022
Variation: July 13th, 2017
Gene Model: July 14th, 2015
5 months agotrpp4 trehalose-6-phosphate phosphatase4:
4.08
GRMZM2G151044
Muhammad Ilyas et al. 2023. Association Mapping for Evaluation of Population Structure, Genetic Diversity, and Physiochemical Traits in Drought-Stressed Maize Germplasm Using SSR Markers Plants. 12:4092.     Reference: December 7th, 2023
Gene Product: October 3rd, 2020
Variation: April 2nd, 2019
Gene Model: June 7th, 2018
5 months agoprmt3 protein arginine methyltransferase3:
7.05
GRMZM2G041328
Muhammad Ilyas et al. 2023. Association Mapping for Evaluation of Population Structure, Genetic Diversity, and Physiochemical Traits in Drought-Stressed Maize Germplasm Using SSR Markers Plants. 12:4092.     Reference: December 7th, 2023
Gene Product: October 24th, 2022
Variation: September 1st, 2003
Gene Model: July 30th, 2020
5 months agonbcs1 nucleobase:cation symporter1:
1.05
GRMZM2G041050
Muhammad Ilyas et al. 2023. Association Mapping for Evaluation of Population Structure, Genetic Diversity, and Physiochemical Traits in Drought-Stressed Maize Germplasm Using SSR Markers Plants. 12:4092.     Reference: December 7th, 2023
Gene Product: July 14th, 2018
Gene Model: December 17th, 2016
5 months agoumc1959  :
8.05
GRMZM2G090963
Muhammad Ilyas et al. 2023. Association Mapping for Evaluation of Population Structure, Genetic Diversity, and Physiochemical Traits in Drought-Stressed Maize Germplasm Using SSR Markers Plants. 12:4092.     Reference: December 7th, 2023
Variation: September 1st, 2003
Gene Model: September 19th, 2018
5 months agogst17 glutathione transferase17:
5.05
GRMZM2G064255
Muhammad Ilyas et al. 2023. Association Mapping for Evaluation of Population Structure, Genetic Diversity, and Physiochemical Traits in Drought-Stressed Maize Germplasm Using SSR Markers Plants. 12:4092.     Reference: December 7th, 2023
Gene Product: September 1st, 2003
Variation: August 17th, 2010
Gene Model: April 18th, 2017
5 months agostc1 sesquiterpene cyclase1:
9.01
GRMZM2G177098
Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: September 5th, 2008
Variation: June 30th, 2012
Gene Model: August 22nd, 2012
5 months agotps8 terpene synthase8:
1.04 - 1.04
GRMZM2G038153
Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: December 6th, 2023
Variation: May 29th, 2012
Gene Model: May 28th, 2012
5 months agopmm1 phosphomannomutase1:
2.00
GRMZM2G165535
Muhammad Ilyas et al. 2023. Association Mapping for Evaluation of Population Structure, Genetic Diversity, and Physiochemical Traits in Drought-Stressed Maize Germplasm Using SSR Markers Plants. 12:4092.     Reference: December 7th, 2023
Gene Product: October 21st, 2020
Gene Model: February 23rd, 2018
5 months agoumc2356  :
8.06
GRMZM2G054341
Muhammad Ilyas et al. 2023. Association Mapping for Evaluation of Population Structure, Genetic Diversity, and Physiochemical Traits in Drought-Stressed Maize Germplasm Using SSR Markers Plants. 12:4092.     Reference: December 7th, 2023
Variation: September 23rd, 2018
Gene Model: September 23rd, 2018
5 months agotps3 terpene synthase3:
 
GRMZM2G064406
Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: December 6th, 2023
Variation: May 28th, 2012
Gene Model: May 28th, 2012
5 months agotps7 terpene synthase7:
 
AC217050.4_FG007
Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: July 17th, 2016
Variation: May 28th, 2012
Gene Model: June 8th, 2012
5 months agotps9 terpene synthase9:
 
GRMZM2G465812
Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: September 4th, 2008
Variation: May 28th, 2012
Gene Model: May 28th, 2012
5 months agoks1 kaurene synthase1:
 
GRMZM2G016922
Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: August 16th, 2012
Gene Model: October 27th, 2014
5 months agotps17 terpene synthase17:
 
GRMZM2G010356
Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: December 6th, 2023
Variation: July 17th, 2016
Gene Model: July 17th, 2016
5 months agotps21 terpene synthase21:
 
GRMZM2G011151
Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: December 6th, 2023
Gene Model: September 22nd, 2017
5 months agocpps4 copalyl diphosphate synthase4:
 
AC218998.2_FG011
Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: August 16th, 2012
Gene Model: November 9th, 2018
5 months agohma8 heavy metal ATPase8:
 
GRMZM5G855347
Yan, PS et al. 2023. Biofortification of iron content by regulating a NAC transcription factor in maize Science. 382:1159-1165.     Reference: December 7th, 2023
Gene Product: October 23rd, 2019
Gene Model: October 23rd, 2019
5 months agotps14 terpene synthase14:
 
GRMZM2G319445
Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: December 6th, 2023
Gene Model: July 20th, 2020
5 months agotps27 terpene synthase27:
 
AC205502.4_FG004
Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: December 6th, 2023
Gene Model: July 20th, 2020
5 months agotps12 terpene synthase12:
 
   Kollner, TG et al. 2023. The terpene synthase gene family in maize – a clarification of existing community nomenclature BMC Genomics. 24:744.     Reference: December 7th, 2023
Gene Product: September 3rd, 2008
5 months agoerdh3 early response to dehydration 15-homolog3:
6.05
GRMZM2G093325
Muhammad Ilyas et al. 2023. Association Mapping for Evaluation of Population Structure, Genetic Diversity, and Physiochemical Traits in Drought-Stressed Maize Germplasm Using SSR Markers Plants. 12:4092.     Reference: December 7th, 2023
Gene Product: December 23rd, 2022
Gene Model: May 26th, 2022
5 months agonrat3 nramp aluminum transporter3:
9.06
GRMZM2G178190
Yan, PS et al. 2023. Biofortification of iron content by regulating a NAC transcription factor in maize Science. 382:1159-1165.     Reference: December 7th, 2023
Gene Product: August 17th, 2015
Variation: September 17th, 2022
Gene Model: June 26th, 2020
5 months agocka1 CK2 protein kinase alpha 1:
1.10
   Bing Ma et al. 2023. Defective kernel 58 encodes an Rrp15p domain-containing protein essential to ribosome biogenesis and seed development in maize. New Phytol. :doi: 10.1111/nph.19460.     Reference: December 7th, 2023
Gene Product: December 3rd, 2013
Variation: February 15th, 2006
5 months agoglk28 G2-like-transcription factor 28:
 
   Qiu, YT et al. 2023. Identification of loci conferring resistance to four foliar diseases of maize G3. :doi: 10.1093/g3journal/jkad275.     Reference: December 5th, 2023
Variation: July 15th, 2021
5 months agotdm1 three division mutant1:
 
   Zhang, T et al. 2023. ZmTDM1 encodes a tetratricopeptide repeat domain protein and is required for meiotic exit in maize. Plant J. :doi: 10.1111/tpj.16579.   AT4G20900 (TAIR) Reference: December 4th, 2023
Gene Product: May 20th, 2017
Variation: December 4th, 2023
5 months agohpl1 hydroperoxide lyase1:
 
   Bo Lang et al. 2023. Trichoderma harzianum Cellulase Gene thph2 Affects Trichoderma Root Colonization and Induces Resistance to Southern Leaf Blight in Maize J Fungi. 9:1168.     Reference: December 4th, 2023
Variation: August 1st, 2008
5 months agoaos2 allene oxide synthesis2:
 
GRMZM2G002178
Bo Lang et al. 2023. Trichoderma harzianum Cellulase Gene thph2 Affects Trichoderma Root Colonization and Induces Resistance to Southern Leaf Blight in Maize J Fungi. 9:1168.     Reference: December 4th, 2023
Gene Product: September 1st, 2003
Gene Model: November 25th, 2013
5 months agonrh2 nucleoside N-ribohydrolase2:
 
GRMZM2G134149
Eva Ľuptáková et al. 2023. Plant nucleoside N-ribohydrolases: riboside binding and role in nitrogen storage mobilization Plant J. :doi: 10.1111/tpj.16572.     Reference: December 4th, 2023
Gene Product: April 22nd, 2020
Gene Model: April 22nd, 2020
5 months agonrh4 nucleoside N-ribohydrolase4:
 
GRMZM2G085960
Eva Ľuptáková et al. 2023. Plant nucleoside N-ribohydrolases: riboside binding and role in nitrogen storage mobilization Plant J. :doi: 10.1111/tpj.16572.     Reference: December 4th, 2023
Gene Product: April 22nd, 2020
Gene Model: April 22nd, 2020
5 months agonrh5 nucleoside N-ribohydrolase5:
 
GRMZM2G015344
Eva Ľuptáková et al. 2023. Plant nucleoside N-ribohydrolases: riboside binding and role in nitrogen storage mobilization Plant J. :doi: 10.1111/tpj.16572.     Reference: December 4th, 2023
Gene Product: April 22nd, 2020
Gene Model: April 22nd, 2020
5 months agosina6 seven in absentia6:
 
GRMZM2G009265
Zhang, T et al. 2023. ZmTDM1 encodes a tetratricopeptide repeat domain protein and is required for meiotic exit in maize. Plant J. :doi: 10.1111/tpj.16579.     Reference: December 4th, 2023
Gene Product: January 24th, 2021
Gene Model: January 24th, 2021
5 months agoZm00001d027649  :
 
GRMZM2G062724
Zhang, T et al. 2023. ZmTDM1 encodes a tetratricopeptide repeat domain protein and is required for meiotic exit in maize. Plant J. :doi: 10.1111/tpj.16579.     Reference: December 4th, 2023
Gene Product: January 9th, 2020
Gene Model: April 8th, 2021
5 months agonrh1 nucleoside N-ribohydrolase1:
8.01
GRMZM2G029845
Eva Ľuptáková et al. 2023. Plant nucleoside N-ribohydrolases: riboside binding and role in nitrogen storage mobilization Plant J. :doi: 10.1111/tpj.16572.     Reference: December 4th, 2023
Gene Product: April 22nd, 2020
Gene Model: April 22nd, 2020
5 months agonrh3 nucleoside N-ribohydrolase3:
2.06
GRMZM2G104999
Eva Ľuptáková et al. 2023. Plant nucleoside N-ribohydrolases: riboside binding and role in nitrogen storage mobilization Plant J. :doi: 10.1111/tpj.16572.     Reference: December 4th, 2023
Gene Product: April 22nd, 2020
Gene Model: March 19th, 2020
5 months agosaur37 small auxin up RNA37:
4.04
GRMZM2G420812
Zhao, XQ et al. 2023. Exogenous Serotonin (5-HT) Promotes Mesocotyl and Coleoptile Elongation in Maize Seedlings under Deep-Seeding Stress through Enhancing Auxin Accumulation and Inhibiting Lignin Formation Int J Mol Sci. 24:17061.     Reference: December 2nd, 2023
Gene Product: November 26th, 2021
Gene Model: May 22nd, 2021
5 months agoacco3 1-aminocyclopropane-1-carboxylate oxidase3:
 
GRMZM2G166616
Zhiying Zhu et al. 2023. Dynamic physiological and transcriptomic changes reveal memory effects of salt stress in maize. BMC Genomics. 24:726.     Reference: December 2nd, 2023
Gene Product: May 16th, 2016
Gene Model: May 16th, 2016
5 months agoaas5 auxin amido synthetase5:
 
GRMZM2G060991
Zhao, XQ et al. 2023. Exogenous Serotonin (5-HT) Promotes Mesocotyl and Coleoptile Elongation in Maize Seedlings under Deep-Seeding Stress through Enhancing Auxin Accumulation and Inhibiting Lignin Formation Int J Mol Sci. 24:17061.     Reference: December 2nd, 2023
Gene Product: October 21st, 2019
Gene Model: October 21st, 2019
5 months agosaur79 small auxin up RNA79:
 
GRMZM2G442000
Zhao, XQ et al. 2023. Exogenous Serotonin (5-HT) Promotes Mesocotyl and Coleoptile Elongation in Maize Seedlings under Deep-Seeding Stress through Enhancing Auxin Accumulation and Inhibiting Lignin Formation Int J Mol Sci. 24:17061.     Reference: December 2nd, 2023
Gene Product: November 26th, 2021
Gene Model: November 26th, 2021
5 months agowrky128 WRKY-transcription factor 128:
 
GRMZM2G036711
Zhiying Zhu et al. 2023. Dynamic physiological and transcriptomic changes reveal memory effects of salt stress in maize. BMC Genomics. 24:726.     Reference: December 2nd, 2023
Gene Product: July 24th, 2017
Gene Model: December 2nd, 2021
5 months agosmr5 siamese-related5:
9.08 - 9.08
GRMZM2G413337
Ma, XL et al. 2023. Identification and validation of seed dormancy loci and candidate genes and construction of regulatory networks by WGCNA in maize introgression lines. Theor Appl Genet. 136:259.     Reference: December 1st, 2023
Gene Product: March 8th, 2017
Variation: September 1st, 2003
Gene Model: June 27th, 2020
5 months agoumc1715  :
1.09
GRMZM2G171559
Jihai Zhang et al. 2023. Kernel Bioassay Evaluation of Maize Ear Rot and Genome-Wide Association Analysis for Identifying Genetic Loci Associated with Resistance to Fusarium graminearum Infection J Fungi. 9:1157.     Reference: December 1st, 2023
Variation: December 8th, 2016
Gene Model: December 8th, 2016
5 months agoumc1748  :
1.06
GRMZM2G386209
Ma, XL et al. 2023. Identification and validation of seed dormancy loci and candidate genes and construction of regulatory networks by WGCNA in maize introgression lines. Theor Appl Genet. 136:259.     Reference: December 1st, 2023
Variation: December 8th, 2016
Gene Model: December 8th, 2016
5 months agomtl2 metallothionein2:
1.05
GRMZM2G402564
Ma, XL et al. 2023. Identification and validation of seed dormancy loci and candidate genes and construction of regulatory networks by WGCNA in maize introgression lines. Theor Appl Genet. 136:259.     Reference: December 1st, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: July 28th, 2016
5 months agohct13 hydroxycinnamoyltransferase13:
 
GRMZM2G129266
Jihai Zhang et al. 2023. Kernel Bioassay Evaluation of Maize Ear Rot and Genome-Wide Association Analysis for Identifying Genetic Loci Associated with Resistance to Fusarium graminearum Infection J Fungi. 9:1157.     Reference: December 1st, 2023
Gene Product: November 7th, 2015
Gene Model: May 18th, 2016
5 months agovq36 VQ motif-transcription factor36:
 
GRMZM2G174558
Ma, XL et al. 2023. Identification and validation of seed dormancy loci and candidate genes and construction of regulatory networks by WGCNA in maize introgression lines. Theor Appl Genet. 136:259.     Reference: December 1st, 2023
Gene Product: August 31st, 2019
Gene Model: August 31st, 2019
5 months agoxgt1 xyloglucan glycosyltransferase1:
 
GRMZM2G142685
Ma, XL et al. 2023. Identification and validation of seed dormancy loci and candidate genes and construction of regulatory networks by WGCNA in maize introgression lines. Theor Appl Genet. 136:259.     Reference: December 1st, 2023
Gene Product: July 2nd, 2020
Gene Model: July 2nd, 2020
5 months agoiqd24 IQ-domain 24:
 
GRMZM2G030882
Ma, XL et al. 2023. Identification and validation of seed dormancy loci and candidate genes and construction of regulatory networks by WGCNA in maize introgression lines. Theor Appl Genet. 136:259.     Reference: December 1st, 2023
Gene Product: May 23rd, 2021
Gene Model: May 23rd, 2021
5 months agostp15 sugar transport protein15:
 
GRMZM2G049372
Ma, XL et al. 2023. Identification and validation of seed dormancy loci and candidate genes and construction of regulatory networks by WGCNA in maize introgression lines. Theor Appl Genet. 136:259.     Reference: December 1st, 2023
Gene Product: January 2nd, 2023
Gene Model: January 12th, 2022
5 months agoperk4 proline-rich extensin-like receptor kinase4:
 
   Mei Liu et al. 2023. Coronatine-Induced Maize Defense against Gibberella Stalk Rot by Activating Antioxidants and Phytohormone Signaling J Fungi. 9:1155.     Reference: November 30th, 2023
Gene Product: September 7th, 2022
5 months agoba2 barren stalk2:
2.04 - 2.05
GRMZM2G399641
Ni, JX et al. 2023. Deploying QTL-seq rapid identification and separation of the major QTLs of tassel branch number for fine-mapping in advanced maize populations Mol Breed. 43:88.     Reference: November 30th, 2023
Gene Product: January 26th, 2019
Variation: January 26th, 2019
Gene Model: January 26th, 2019
5 months agobaf1 barren stalk fastigiate1:
9.02
GRMZM2G072274
Ni, JX et al. 2023. Deploying QTL-seq rapid identification and separation of the major QTLs of tassel branch number for fine-mapping in advanced maize populations Mol Breed. 43:88.   LOC_Os06g04540 (MSU/TIGR)
Os06g0136900 (Gramene)
Reference: November 30th, 2023
Gene Product: November 11th, 2017
Variation: August 15th, 2011
Gene Model: December 8th, 2014
5 months agoln1 linoleic acid1:
6.04 - 6.04
GRMZM2G169089
Yang, N et al. 2023. Two teosintes made modern maize. Science 282: 6674     Reference: November 30th, 2023
Gene Product: August 12th, 2018
Variation: August 16th, 2014
Gene Model: August 15th, 2014
5 months agoumc1483  :
8.01
GRMZM5G872442
Yang, N et al. 2023. Two teosintes made modern maize. Science 282: 6674     Reference: November 30th, 2023
Variation: March 30th, 2007
Gene Model: September 14th, 2018
5 months agogst12 glutathione S-transferase12:
1.01
GRMZM2G096269
Mei Liu et al. 2023. Coronatine-Induced Maize Defense against Gibberella Stalk Rot by Activating Antioxidants and Phytohormone Signaling J Fungi. 9:1155.     Reference: November 30th, 2023
Gene Product: September 1st, 2003
Variation: March 17th, 2006
Gene Model: July 27th, 2016
5 months agopat7 protein S-acyltransferase7:
2.02
GRMZM2G010011
Ni, JX et al. 2023. Deploying QTL-seq rapid identification and separation of the major QTLs of tassel branch number for fine-mapping in advanced maize populations Mol Breed. 43:88.     Reference: November 30th, 2023
Gene Product: February 26th, 2022
Gene Model: December 10th, 2021
5 months agotif5A eukaryotic translation initiation factor 5A:
7.04
   Yang, N et al. 2023. Two teosintes made modern maize. Science 282: 6674     Reference: November 30th, 2023
Variation: January 13th, 2016
5 months agoatm1 ataxia-telangiectasia mutated1:
 
GRMZM2G425751
Yang, N et al. 2023. Two teosintes made modern maize. Science 282: 6674   (AT3G48190 (TAIR) Reference: November 30th, 2023
Gene Product: May 13th, 2014
Variation: June 5th, 2021
Gene Model: November 23rd, 2017
5 months agocct43 CO CO-LIKE TIMING OF CAB1 protein domain43:
 
GRMZM2G005732
Yang, N et al. 2023. Two teosintes made modern maize. Science 282: 6674     Reference: November 30th, 2023
Gene Product: January 11th, 2018
Gene Model: January 11th, 2018
5 months agofut2 galactoside 2-alpha-L-fucosyltransferase2:
 
GRMZM2G127184
Yang, N et al. 2023. Two teosintes made modern maize. Science 282: 6674     Reference: November 30th, 2023
Gene Product: July 2nd, 2020
Gene Model: July 2nd, 2020
5 months agokea1 K+ efflux antiporter 1:
 
GRMZM2G169114
Yang, N et al. 2023. Two teosintes made modern maize. Science 282: 6674     Reference: November 30th, 2023
Gene Product: April 26th, 2021
Gene Model: April 26th, 2021
5 months agoacat2 acetyl-CoA acetyltransferase2:
8.01
GRMZM5G860137
Yang, N et al. 2023. Two teosintes made modern maize. Science 282: 6674     Reference: November 30th, 2023
Gene Product: September 1st, 2003
Variation: September 25th, 2007
Gene Model: September 5th, 2021
5 months agotoc34 translocon at outer membrane of chloroplast34:
9.06
GRMZM2G159777
Yang, N et al. 2023. Two teosintes made modern maize. Science 282: 6674     Reference: November 30th, 2023
Gene Product: September 1st, 2003
Variation: August 3rd, 2013
Gene Model: July 28th, 2016
5 months agopmi2 phosphomannose isomerase2:
4.02
GRMZM2G456471
Zhang, HK et al. 2023. Functional analysis of ZmG6PE reveals its role in responses to low-phosphorus stress and regulation of grain yield in maize. Frontiers in Plant Science. 14:1286699.     Reference: November 29th, 2023
Gene Product: October 21st, 2020
Gene Model: April 11th, 2020
5 months agoamo1 amine oxidase1:
10.04
GRMZM2G359298
Zhang, HK et al. 2023. Functional analysis of ZmG6PE reveals its role in responses to low-phosphorus stress and regulation of grain yield in maize. Frontiers in Plant Science. 14:1286699.     Reference: November 29th, 2023
Gene Product: September 1st, 2003
Gene Model: September 29th, 2015
5 months agochn2 chitinase2:
6.01
   Rebecca M Lyon et al. 2023. Undesirable protein sequence variations in maize genes that confer resistance to fungal pathogens and insect pests Plant Gene. :doi: 10.1016/j.plgene.2023.100441.     Reference: November 29th, 2023
Gene Product: May 31st, 2021
Variation: September 1st, 2003
5 months agoabh3 abscisic acid 8'-hydroxylase3:
 
GRMZM2G105954
Yu, T et al. 2023. Identification of Multiple Genetic Loci Related to Low-Temperature Tolerance during Germination in Maize (Zea maize L.) through a Genome-Wide Association Study Curr Issues Mol Biol. 45:9634-9655.     Reference: November 29th, 2023
Gene Product: February 15th, 2013
Gene Model: February 15th, 2013
5 months agopao6 polyamine oxidase6:
2.00
GRMZM2G078033
Zhang, HK et al. 2023. Functional analysis of ZmG6PE reveals its role in responses to low-phosphorus stress and regulation of grain yield in maize. Frontiers in Plant Science. 14:1286699.     Reference: November 29th, 2023
Gene Product: June 10th, 2020
Gene Model: March 7th, 2020
5 months agopropep3 precursor elicitor peptide3:
 
GRMZM2G339117
Wang, L et al. 2024. Feeding Assay to Study the Effect of Phytocytokines on Direct and Indirect Defense in Maize. Methods in Molecular Biology. 2731:133-142.     Reference: November 29th, 2023
Gene Product: October 16th, 2020
Gene Model: May 17th, 2013
5 months agospx5 SPX domain-containing membrane protein5:
4.09
GRMZM2G171423
Zhang, HK et al. 2023. Functional analysis of ZmG6PE reveals its role in responses to low-phosphorus stress and regulation of grain yield in maize. Frontiers in Plant Science. 14:1286699.     Reference: November 29th, 2023
Gene Product: October 9th, 2021
Gene Model: April 26th, 2020
5 months agohex6 hexokinase6:
 
GRMZM2G171373
Zhang, HK et al. 2023. Functional analysis of ZmG6PE reveals its role in responses to low-phosphorus stress and regulation of grain yield in maize. Frontiers in Plant Science. 14:1286699.     Reference: November 29th, 2023
Gene Product: September 15th, 2013
Gene Model: September 15th, 2013
5 months agochn33 chitinase33:
 
GRMZM2G117942
Rebecca M Lyon et al. 2023. Undesirable protein sequence variations in maize genes that confer resistance to fungal pathogens and insect pests Plant Gene. :doi: 10.1016/j.plgene.2023.100441.     Reference: November 29th, 2023
Gene Product: May 31st, 2021
Gene Model: September 16th, 2017
5 months agoggt1 geranylgeranyl transferase1:
 
GRMZM2G151087
Rebecca M Lyon et al. 2023. Undesirable protein sequence variations in maize genes that confer resistance to fungal pathogens and insect pests Plant Gene. :doi: 10.1016/j.plgene.2023.100441.     Reference: November 29th, 2023
Gene Product: January 9th, 2018
Gene Model: January 8th, 2018
5 months agochi4 chalcone flavanone isomerase4:
 
GRMZM2G095778
Rebecca M Lyon et al. 2023. Undesirable protein sequence variations in maize genes that confer resistance to fungal pathogens and insect pests Plant Gene. :doi: 10.1016/j.plgene.2023.100441.     Reference: November 29th, 2023
Gene Product: January 26th, 2021
Gene Model: January 15th, 2018
5 months agodef3 defensin-like protein3:
 
GRMZM2G149869
Rebecca M Lyon et al. 2023. Undesirable protein sequence variations in maize genes that confer resistance to fungal pathogens and insect pests Plant Gene. :doi: 10.1016/j.plgene.2023.100441.     Reference: November 29th, 2023
Gene Product: December 12th, 2022
Variation: July 25th, 2018
Gene Model: July 25th, 2018
5 months agopao3 polyamine oxidase3:
 
GRMZM2G396856
Zhang, HK et al. 2023. Functional analysis of ZmG6PE reveals its role in responses to low-phosphorus stress and regulation of grain yield in maize. Frontiers in Plant Science. 14:1286699.     Reference: November 29th, 2023
Gene Product: June 10th, 2020
Gene Model: June 9th, 2020
5 months agophi2 phosphohexose isomerase2:
 
GRMZM2G076075
Zhang, HK et al. 2023. Functional analysis of ZmG6PE reveals its role in responses to low-phosphorus stress and regulation of grain yield in maize. Frontiers in Plant Science. 14:1286699.     Reference: November 29th, 2023
Gene Product: September 1st, 2003
Gene Model: October 21st, 2020
5 months agochn29 chitinase29:
 
GRMZM2G358153
Rebecca M Lyon et al. 2023. Undesirable protein sequence variations in maize genes that confer resistance to fungal pathogens and insect pests Plant Gene. :doi: 10.1016/j.plgene.2023.100441.     Reference: November 29th, 2023
Gene Product: May 31st, 2021
Gene Model: May 31st, 2021
5 months agocipk38 calcineurin B-like-interacting protein kinase38:
 
GRMZM2G170552
Yu, T et al. 2023. Identification of Multiple Genetic Loci Related to Low-Temperature Tolerance during Germination in Maize (Zea maize L.) through a Genome-Wide Association Study Curr Issues Mol Biol. 45:9634-9655.     Reference: November 29th, 2023
Gene Product: August 25th, 2018
Gene Model: July 12th, 2021
5 months agogpe1 glucose-6-phosphate 1-epimerase1:
 
GRMZM2G039588
Zhang, HK et al. 2023. Functional analysis of ZmG6PE reveals its role in responses to low-phosphorus stress and regulation of grain yield in maize. Frontiers in Plant Science. 14:1286699.     Reference: November 29th, 2023
Gene Product: November 29th, 2023
Gene Model: August 27th, 2021
5 months agoalte1 acyl-lipid thioesterase1:
 
GRMZM2G170509
Yu, T et al. 2023. Identification of Multiple Genetic Loci Related to Low-Temperature Tolerance during Germination in Maize (Zea maize L.) through a Genome-Wide Association Study Curr Issues Mol Biol. 45:9634-9655.     Reference: November 29th, 2023
Gene Product: January 3rd, 2023
Gene Model: December 9th, 2021
5 months agoqor1 quinone oxidoreductase1:
5.08
GRMZM2G008728
Rebecca M Lyon et al. 2023. Undesirable protein sequence variations in maize genes that confer resistance to fungal pathogens and insect pests Plant Gene. :doi: 10.1016/j.plgene.2023.100441.     Reference: November 29th, 2023
Gene Product: July 14th, 2023
Variation: July 14th, 2023
Gene Model: May 25th, 2020
5 months agoglu25 beta-glucosidase25:
 
   Gracia Gómez-Anduro et al. 2011. Genome-wide analysis of the beta-glucosidase gene family in maize (Zea mays L. var B73). Plant Mol Biol. 77:159-83.     Reference: November 28th, 2023
Gene Product: June 26th, 2019
5 months agoglu24 beta-glucosidase24:
 
   Gracia Gómez-Anduro et al. 2011. Genome-wide analysis of the beta-glucosidase gene family in maize (Zea mays L. var B73). Plant Mol Biol. 77:159-83.     Reference: November 28th, 2023
Gene Product: June 26th, 2019
5 months agogrf27 general regulatory factor27:
 
   Su, HH et al. 2023. ZmELF6-ZmPRR37 module regulates maize flowering and salt response. Plant Biotechnol J. :doi: 10.1111/pbi.14236.     Reference: November 28th, 2023
Gene Product: March 6th, 2023
5 months agoglu6 beta-glucosidase6:
 
   Gracia Gómez-Anduro et al. 2011. Genome-wide analysis of the beta-glucosidase gene family in maize (Zea mays L. var B73). Plant Mol Biol. 77:159-83.     Reference: November 28th, 2023
Gene Product: June 26th, 2019
5 months agoglu14 beta-glucosidase14:
 
   Gracia Gómez-Anduro et al. 2011. Genome-wide analysis of the beta-glucosidase gene family in maize (Zea mays L. var B73). Plant Mol Biol. 77:159-83.     Reference: November 28th, 2023
Gene Product: June 26th, 2019
5 months agoglu7 beta-glucosidase7:
 
   Gracia Gómez-Anduro et al. 2011. Genome-wide analysis of the beta-glucosidase gene family in maize (Zea mays L. var B73). Plant Mol Biol. 77:159-83.     Reference: November 28th, 2023
Gene Product: June 26th, 2019
5 months agoglu11 beta-glucosidase11:
 
   Gracia Gómez-Anduro et al. 2011. Genome-wide analysis of the beta-glucosidase gene family in maize (Zea mays L. var B73). Plant Mol Biol. 77:159-83.     Reference: November 28th, 2023
Gene Product: June 26th, 2019
5 months agoglu15 beta-glucosidase15:
 
   Gracia Gómez-Anduro et al. 2011. Genome-wide analysis of the beta-glucosidase gene family in maize (Zea mays L. var B73). Plant Mol Biol. 77:159-83.     Reference: November 28th, 2023
Gene Product: June 26th, 2019
5 months agoglu19 beta-glucosidase19:
 
   Gracia Gómez-Anduro et al. 2011. Genome-wide analysis of the beta-glucosidase gene family in maize (Zea mays L. var B73). Plant Mol Biol. 77:159-83.     Reference: November 28th, 2023
Gene Product: June 26th, 2019
5 months agoglu22 beta-glucosidase22:
10.04
GRMZM2G031660
Gracia Gómez-Anduro et al. 2011. Genome-wide analysis of the beta-glucosidase gene family in maize (Zea mays L. var B73). Plant Mol Biol. 77:159-83.     Reference: November 28th, 2023
Gene Product: June 26th, 2019
Gene Model: July 20th, 2021
5 months agowri2 wrinkled1 transcription factor2:
4.08
GRMZM2G174834
Li, H et al. 2023. Multi-omics-driven advances in the understanding of triacylglycerol biosynthesis in oil seeds. Plant J. :doi: 10.1111/tpj.16545.   AT3G54320 (TAIR) Reference: November 28th, 2023
Gene Product: July 5th, 2019
Variation: April 11th, 2011
Gene Model: April 7th, 2011
5 months agoglu26 beta-glucosidase26:
9.06
GRMZM5G828987
Gracia Gómez-Anduro et al. 2011. Genome-wide analysis of the beta-glucosidase gene family in maize (Zea mays L. var B73). Plant Mol Biol. 77:159-83.     Reference: November 28th, 2023
Gene Product: June 26th, 2019
Gene Model: July 17th, 2021
5 months agodek33 defective kernel33:
5.04 - 5.05
GRMZM2G090068
Li, H et al. 2023. Multi-omics-driven advances in the understanding of triacylglycerol biosynthesis in oil seeds. Plant J. :doi: 10.1111/tpj.16545.     Reference: November 28th, 2023
Gene Product: November 13th, 2018
Variation: November 13th, 2018
Gene Model: November 13th, 2018
5 months agoburp8 BURP domain-containing protein-RD22-like8:
4.05
GRMZM2G147756
Su, HH et al. 2023. ZmELF6-ZmPRR37 module regulates maize flowering and salt response. Plant Biotechnol J. :doi: 10.1111/pbi.14236.     Reference: November 28th, 2023
Gene Product: August 18th, 2017
Variation: August 18th, 2017
Gene Model: August 18th, 2017
5 months agoabi20 ABI3-VP1-transcription factor 20:
 
   Su, HH et al. 2023. ZmELF6-ZmPRR37 module regulates maize flowering and salt response. Plant Biotechnol J. :doi: 10.1111/pbi.14236.     Reference: November 28th, 2023
Gene Product: January 29th, 2022
5 months agoabi39 ABI3-VP1-transcription factor 39:
 
   Su, HH et al. 2023. ZmELF6-ZmPRR37 module regulates maize flowering and salt response. Plant Biotechnol J. :doi: 10.1111/pbi.14236.     Reference: November 28th, 2023
Gene Product: January 29th, 2022
5 months agoca5p5 CCAAT-HAP5-transcription factor 55:
 
   Su, HH et al. 2023. ZmELF6-ZmPRR37 module regulates maize flowering and salt response. Plant Biotechnol J. :doi: 10.1111/pbi.14236.     Reference: November 28th, 2023
Gene Product: August 9th, 2016
5 months agojmj20 JUMONJI-transcription factor 20:
 
   Su, HH et al. 2023. ZmELF6-ZmPRR37 module regulates maize flowering and salt response. Plant Biotechnol J. :doi: 10.1111/pbi.14236.   AT5G04240 (TAIR) Reference: November 28th, 2023
Gene Product: April 3rd, 2019
Variation: November 28th, 2023
5 months agoumc1684  :
7.04
GRMZM2G057281
Su, HH et al. 2023. ZmELF6-ZmPRR37 module regulates maize flowering and salt response. Plant Biotechnol J. :doi: 10.1111/pbi.14236.     Reference: November 28th, 2023
Variation: September 1st, 2003
Gene Model: March 17th, 2021
5 months agohdt104 histone deacetylase 104:
 
GRMZM5G898314
Moiseeva, YM et al. 2023. Analysis of Mutations of the Maize Genes of Autonomous Embryo- and Endospermogenesis Russ J Genet. 59:967–969.     Reference: November 28th, 2023
Gene Product: February 12th, 2020
Gene Model: October 12th, 2017
5 months agoglu2 beta-glucosidase2:
2.04
   Coneva, V; Zhu, T; Colasanti, JJ. 2007. J Exp Bot. 58:3679-3693     Reference: November 28th, 2023
Gene Product: June 26th, 2019
Variation: April 16th, 2013
5 months agoglu18 beta-glucosidase18:
1.09
GRMZM2G118003
Gracia Gómez-Anduro et al. 2011. Genome-wide analysis of the beta-glucosidase gene family in maize (Zea mays L. var B73). Plant Mol Biol. 77:159-83.     Reference: November 28th, 2023
Gene Product: June 26th, 2019
Gene Model: February 15th, 2020
5 months agoglu17 beta-glucosidase17:
1.09
AC217401.3_FG001
Chuang Liu et al. 2023. A dual-subcellular localized β-glucosidase confers pathogen and insect resistance without a yield penalty in maize. Plant Biotechnol J. :doi: 10.1111/pbi.14242.     Reference: November 28th, 2023
Gene Product: June 26th, 2019
Variation: November 28th, 2023
Gene Model: March 18th, 2022
5 months agowri1 wrinkled1 transcription factor1:
 
GRMZM2G124524
Li, H et al. 2023. Multi-omics-driven advances in the understanding of triacylglycerol biosynthesis in oil seeds. Plant J. :doi: 10.1111/tpj.16545.   AT3G54320 (TAIR) Reference: November 28th, 2023
Gene Product: July 5th, 2019
Variation: April 11th, 2011
Gene Model: April 8th, 2011
5 months agoglu12 beta-glucosidase12:
3.06
GRMZM2G069024
Gracia Gómez-Anduro et al. 2011. Genome-wide analysis of the beta-glucosidase gene family in maize (Zea mays L. var B73). Plant Mol Biol. 77:159-83.     Reference: November 28th, 2023
Gene Product: June 26th, 2019
Gene Model: April 6th, 2020
5 months agoglu3 beta-glucosidase3:
 
GRMZM2G014844
Gracia Gómez-Anduro et al. 2011. Genome-wide analysis of the beta-glucosidase gene family in maize (Zea mays L. var B73). Plant Mol Biol. 77:159-83.     Reference: November 28th, 2023
Gene Product: June 26th, 2019
Gene Model: January 24th, 2015
5 months agosnrkII10 SnRK2 serine threonine kinase10:
 
GRMZM2G066867
Su, HH et al. 2023. ZmELF6-ZmPRR37 module regulates maize flowering and salt response. Plant Biotechnol J. :doi: 10.1111/pbi.14236.     Reference: November 28th, 2023
Gene Product: April 14th, 2018
Gene Model: February 11th, 2015
5 months agogcs1 generative cell specific1:
 
GRMZM2G412911
Moiseeva, YM et al. 2023. Analysis of Mutations of the Maize Genes of Autonomous Embryo- and Endospermogenesis Russ J Genet. 59:967–969.   AT4G11720 (TAIR)
LOC_Os05g18730 (MSU/TIGR)
Reference: November 28th, 2023
Variation: May 9th, 2017
Gene Model: April 10th, 2017
5 months agogex2 gamete expressed2:
 
GRMZM2G036832
Moiseeva, YM et al. 2023. Analysis of Mutations of the Maize Genes of Autonomous Embryo- and Endospermogenesis Russ J Genet. 59:967–969.   AT5G49150 (TAIR) Reference: November 28th, 2023
Gene Product: February 25th, 2020
Variation: February 25th, 2020
Gene Model: February 25th, 2020
5 months agohsftf31 HSF-transcription factor 31:
 
GRMZM2G051448
Su, HH et al. 2023. ZmELF6-ZmPRR37 module regulates maize flowering and salt response. Plant Biotechnol J. :doi: 10.1111/pbi.14236.     Reference: November 28th, 2023
Gene Product: May 15th, 2020
Gene Model: May 15th, 2020
5 months agodhn15 dehydrin15:
 
GRMZM2G147014
Su, HH et al. 2023. ZmELF6-ZmPRR37 module regulates maize flowering and salt response. Plant Biotechnol J. :doi: 10.1111/pbi.14236.     Reference: November 28th, 2023
Gene Product: August 5th, 2017
Gene Model: July 3rd, 2020
5 months agoglu20 beta-glucosidase20:
5.03
GRMZM2G163544
Gracia Gómez-Anduro et al. 2011. Genome-wide analysis of the beta-glucosidase gene family in maize (Zea mays L. var B73). Plant Mol Biol. 77:159-83.     Reference: November 28th, 2023
Gene Product: June 26th, 2019
Gene Model: May 16th, 2022
5 months agomca11 metacaspase11:
 
GRMZM2G022799
Su, HH et al. 2023. ZmELF6-ZmPRR37 module regulates maize flowering and salt response. Plant Biotechnol J. :doi: 10.1111/pbi.14236.     Reference: November 28th, 2023
Gene Product: October 27th, 2020
Gene Model: October 27th, 2020
5 months agoglu13 beta-glucosidase13:
 
GRMZM2G376416
Gracia Gómez-Anduro et al. 2011. Genome-wide analysis of the beta-glucosidase gene family in maize (Zea mays L. var B73). Plant Mol Biol. 77:159-83.     Reference: November 28th, 2023
Gene Product: June 26th, 2019
Gene Model: October 31st, 2020
5 months agoaaap48 amino acid/auxin permease48:
 
GRMZM2G010433
Su, HH et al. 2023. ZmELF6-ZmPRR37 module regulates maize flowering and salt response. Plant Biotechnol J. :doi: 10.1111/pbi.14236.     Reference: November 28th, 2023
Gene Product: March 31st, 2021
Gene Model: March 31st, 2021
5 months agoglu10 beta-glucosidase 10:
 
GRMZM2G362368
Gracia Gómez-Anduro et al. 2011. Genome-wide analysis of the beta-glucosidase gene family in maize (Zea mays L. var B73). Plant Mol Biol. 77:159-83.     Reference: November 28th, 2023
Gene Product: June 26th, 2019
Gene Model: November 30th, 2021
5 months agogsk6 glycogen synthase kinase6:
 
GRMZM5G835235
Su, HH et al. 2023. ZmELF6-ZmPRR37 module regulates maize flowering and salt response. Plant Biotechnol J. :doi: 10.1111/pbi.14236.     Reference: November 28th, 2023
Gene Product: February 22nd, 2022
Gene Model: February 22nd, 2022
5 months agoIDP809  :
9.04
GRMZM5G842855
Su, HH et al. 2023. ZmELF6-ZmPRR37 module regulates maize flowering and salt response. Plant Biotechnol J. :doi: 10.1111/pbi.14236.     Reference: November 28th, 2023
Variation: March 31st, 2005
Gene Model: January 24th, 2019
5 months agoglu8 beta-glucosidase8:
10.03
GRMZM2G174699
Gracia Gómez-Anduro et al. 2011. Genome-wide analysis of the beta-glucosidase gene family in maize (Zea mays L. var B73). Plant Mol Biol. 77:159-83.     Reference: November 28th, 2023
Gene Product: June 26th, 2019
Variation: March 31st, 2005
Gene Model: July 19th, 2021
5 months agosacd1 stearoyl-acyl-carrier-protein desaturase1:
3.05
GRMZM5G852502
Li, H et al. 2023. Multi-omics-driven advances in the understanding of triacylglycerol biosynthesis in oil seeds. Plant J. :doi: 10.1111/tpj.16545.     Reference: November 28th, 2023
Gene Product: October 10th, 2016
Variation: June 15th, 2016
Gene Model: June 15th, 2016
5 months agochn20 chitinase20:
5.03
GRMZM2G064360
Su, HH et al. 2023. ZmELF6-ZmPRR37 module regulates maize flowering and salt response. Plant Biotechnol J. :doi: 10.1111/pbi.14236.     Reference: November 28th, 2023
Gene Product: May 31st, 2021
Gene Model: May 11th, 2020
5 months agomat-r(mtNB) maturase related:
 
GRMZM5G851769
Dharam B Khandhar et al. 2023. The Itemization of Variations in Tassel-Ear Mutant and Normal Maize (Zea mays L.) Plants: 1. Organelle Genomes Russ J Genet. 59:919–929.     Reference: November 28th, 2023
Gene Product: September 1st, 2003
Gene Model: June 16th, 2020
5 months agoacx1 acyl-coenzyme A oxidase1:
 
   Jiawen He et al. 2023. Proteomics Analysis Reveals Hormone Metabolic Process Involved in the Regulation of Kernel Water Content Induced by Exogenous Abscisic Acid in Maize Agronomy. 13:2897.     Reference: November 27th, 2023
Gene Product: September 17th, 2022
5 months agosbt8 subtilisin8:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt5 subtilisin5:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt6 subtilisin6:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt17 subtilisin17:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt18 subtilisin18:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt19 subtilisin19:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt33 subtilisin33:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt54 subtilisin54:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt59 subtilisin59:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt46 subtilisin46:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt43 subtilisin43:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt60 subtilisin60:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt61 subtilisin61:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt56 subtilisin56:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt26 subtilisin26:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt21 subtilisin21:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt39 subtilisin39:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt34 subtilisin34:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt27 subtilisin27:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt55 subtilisin55:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt29 subtilisin29:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt25 subtilisin25:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt30 subtilisin30:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt31 subtilisin31:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt35 subtilisin35:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt38 subtilisin38:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt41 subtilisin41:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt42 subtilisin42:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt44 subtilisin44:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt48 subtilisin48:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt49 subtilisin49:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt51 subtilisin51:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt58 subtilisin58:
 
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agoZm00001d018918  :
 
   Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
5 months agoZm00001eb097780  :
 
   Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
5 months agoZm00001eb118420  :
 
   Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
5 months agoZm00001eb081780  :
 
   Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
5 months agoZm00001eb134710  :
 
   Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
5 months agoZm00001eb155880  :
 
   Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
5 months agoZm00001eb169870  :
 
   Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
5 months agoZm00001eb204240  :
 
   Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
5 months agoZm00001eb218670  :
 
   Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
5 months agoZm00001eb245270  :
 
   Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
5 months agoZm00001eb277950  :
 
   Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
5 months agoZm00001eb309390  :
 
   Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
5 months agoZm00001eb301120  :
 
   Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
5 months agoZm00001eb361580  :
 
   Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
5 months agoZm00001eb369820  :
 
   Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
5 months agosbt13 subtilisin13:
6.03
GRMZM2G073223
Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
Gene Model: June 30th, 2021
5 months agosbt47 subtilisin47:
1.08
GRMZM5G891371
Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
Gene Model: April 1st, 2021
5 months agosbt7 subtilisin7:
2.08
GRMZM2G057159
Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
Gene Model: May 4th, 2021
5 months agopco147657  :
7.03
GRMZM2G135651
Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
Gene Model: September 9th, 2018
5 months agosbt40 subtilisin40:
2.09
GRMZM2G345622
Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
Variation: September 1st, 2003
Gene Model: March 2nd, 2021
5 months agosbt52 subtilisin52:
9.03
GRMZM2G306915
Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
Variation: September 1st, 2003
Gene Model: October 13th, 2018
5 months agokch6 potassium channel6:
8.03
AC234152.1_FG002
Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
Variation: April 14th, 2017
Gene Model: April 14th, 2017
5 months agosbt36 subtilisin36:
6.05
AC204292.4_FG006
Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
Variation: July 29th, 2004
Gene Model: August 10th, 2017
5 months agosbt11 subtilisin11:
3.06
GRMZM2G052365
Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
Variation: July 29th, 2004
Gene Model: March 16th, 2018
5 months agosbt62 subtilisin62:
 
GRMZM2G013986
Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
Gene Model: February 3rd, 2020
5 months agosbt24 subtilisin24:
1.10
GRMZM2G091578
Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
Gene Model: February 15th, 2020
5 months agobx9 benzoxazinone synthesis9:
1.06
GRMZM2G161335
Jiawen He et al. 2023. Proteomics Analysis Reveals Hormone Metabolic Process Involved in the Regulation of Kernel Water Content Induced by Exogenous Abscisic Acid in Maize Agronomy. 13:2897.     Reference: November 27th, 2023
Gene Product: October 11th, 2021
Variation: October 27th, 2011
Gene Model: October 20th, 2011
5 months agosbt22 subtilisin22:
3.07
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agoipt2 isopentenyl transferase2:
 
GRMZM2G084462
Jiawen He et al. 2023. Proteomics Analysis Reveals Hormone Metabolic Process Involved in the Regulation of Kernel Water Content Induced by Exogenous Abscisic Acid in Maize Agronomy. 13:2897.     Reference: November 27th, 2023
Gene Product: March 19th, 2014
Variation: July 11th, 2013
Gene Model: July 10th, 2013
5 months agosbt2 subtilisin2:
 
GRMZM2G039538
Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
Variation: November 11th, 2016
Gene Model: November 11th, 2016
5 months agosbt3 subtilisin3:
 
GRMZM2G363552
Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
Variation: November 6th, 2023
Gene Model: November 11th, 2016
5 months agomcm4 minichromosome maintenance4:
 
GRMZM2G066101
Jiawen He et al. 2023. Proteomics Analysis Reveals Hormone Metabolic Process Involved in the Regulation of Kernel Water Content Induced by Exogenous Abscisic Acid in Maize Agronomy. 13:2897.     Reference: November 27th, 2023
Gene Product: August 2nd, 2017
Gene Model: July 31st, 2017
5 months agokch7 potassium channel7:
 
GRMZM2G178356
Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
Variation: September 12th, 2017
Gene Model: September 12th, 2017
5 months agokch8 potassium channel8:
 
GRMZM5G838773
Gao, Y-Q et al. 2017. Plant J pp.doi: 10.1111/tpj.13712     Reference: September 12th, 2017
Gene Product: November 27th, 2023
Gene Model: September 12th, 2017
5 months agosbt16 subtilisin16:
 
GRMZM2G157313
Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
Gene Model: March 14th, 2018
5 months agocl19485_1  :
5.07
GRMZM2G161800
Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
Gene Model: May 9th, 2022
5 months agosbt4 subtilisin4:
 
GRMZM2G429842
Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
Gene Model: November 2nd, 2020
5 months agoznf9 zinc finger protein9:
 
GRMZM2G125775
Liu, TD et al. 2023. Transcriptome-based network analysis cell cycle-related genes in response to blue and red light in maize AoB Plants. :doi: 10.1093/aobpla/plad079.     Reference: November 27th, 2023
Gene Product: November 14th, 2022
Gene Model: May 25th, 2021
5 months agosbt12 subtilisin12:
 
GRMZM5G836501
Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
Gene Model: July 7th, 2021
5 months agodhad2 dihydroxy-acid dehydratase2:
 
GRMZM2G014069
Jiawen He et al. 2023. Proteomics Analysis Reveals Hormone Metabolic Process Involved in the Regulation of Kernel Water Content Induced by Exogenous Abscisic Acid in Maize Agronomy. 13:2897.     Reference: November 27th, 2023
Gene Product: August 29th, 2021
Gene Model: August 29th, 2021
5 months agoZm00001d017281  :
 
GRMZM2G068904
Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
Gene Model: February 15th, 2022
5 months agosbt28 subtilisin28:
5.04
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosbt45 subtilisin45:
7.03
GRMZM2G132032
Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
Gene Model: May 15th, 2019
5 months agocl14040_1  :
8.06
GRMZM2G080767
Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
Gene Model: June 13th, 2022
5 months agosbt50 subtilisin50:
8.08
   Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
5 months agosi946031d03b  :
9.02
   Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
5 months agosbt57 subtilisin57:
10.04
GRMZM2G414915
Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
Variation: September 25th, 2007
Gene Model: July 7th, 2020
5 months agoIDP494  :
3.09
GRMZM2G049866
Jiawen He et al. 2023. Proteomics Analysis Reveals Hormone Metabolic Process Involved in the Regulation of Kernel Water Content Induced by Exogenous Abscisic Acid in Maize Agronomy. 13:2897.     Reference: November 27th, 2023
Variation: March 31st, 2005
Gene Model: February 25th, 2019
5 months agosbt14 subtilisin14:
5.03
GRMZM2G099452
Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
Variation: March 31st, 2005
Gene Model: May 10th, 2020
5 months agokch4 potassium channel4:
3.02
GRMZM2G093313
Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
Variation: February 20th, 2008
Gene Model: April 22nd, 2011
5 months agosbt32 subtilisin32:
5.07
GRMZM2G163749
Wang, XD et al. 2023. Genome-Wide Identification and Characterization of the SBT Gene Family in maize and Its Expression in the Various tissues Plant Mol Biol Rep. :doi: 10.1007/s11105-023-01422-5.     Reference: November 27th, 2023
Gene Product: November 11th, 2016
Gene Model: May 25th, 2020
5 months agogpm871  :
4.09
GRMZM2G148118
Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
Gene Model: April 25th, 2020
5 months agokch2 potassium channel2:
6.05
GRMZM2G020859
Li, J et al. 2023. Integrated Transcriptomic and Proteomic Analyses of Low-Nitrogen-Stress Tolerance and Function Analysis of ZmGST42 Gene in Maize Antioxidants. 12:1831.     Reference: October 5th, 2023
Gene Product: November 27th, 2023
Variation: October 25th, 2017
Gene Model: July 23rd, 2014
5 months agokch1 potassium channel 1:
3.08
GRMZM2G022915
Anna Fiorillo et al. 2023. 14-3-3 Proteins and the Plasma Membrane H+-ATPase Are Involved in Maize (Zea mays) Magnetic Induction. Plants. 12:2887.     Reference: August 12th, 2023
Gene Product: November 27th, 2023
Variation: July 22nd, 2014
Gene Model: April 22nd, 2011
5 months agokch3 potassium channel3:
2.06
GRMZM2G081666
Mallikarjuna, MG et al. 2023. Genome-wide identification of potassium channels in maize showed evolutionary patterns and variable functional responses to abiotic stresses Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108235.     Reference: November 27th, 2023
Gene Product: November 27th, 2023
Variation: April 22nd, 2011
Gene Model: April 22nd, 2011
5 months agoprx69 peroxidase69:
 
   Ren, Y et al. 2023. Application of Methionine Increases the Germination Rate of Maize Seeds by Triggering Multiple Phenylpropanoid Biosynthetic Genes at Transcript Levels. Plants. 12:3802.     Reference: November 26th, 2023
Gene Product: September 18th, 2015
5 months agobm2 brown midrib2:
1.11
GRMZM2G347056
Ren, Y et al. 2023. Application of Methionine Increases the Germination Rate of Maize Seeds by Triggering Multiple Phenylpropanoid Biosynthetic Genes at Transcript Levels. Plants. 12:3802.     Reference: November 26th, 2023
Gene Product: August 28th, 2012
Variation: November 30th, 2013
Gene Model: November 30th, 2013
5 months agomets2 methionine synthase2:
5.02
GRMZM2G112149
Ren, Y et al. 2023. Application of Methionine Increases the Germination Rate of Maize Seeds by Triggering Multiple Phenylpropanoid Biosynthetic Genes at Transcript Levels. Plants. 12:3802.     Reference: November 26th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: June 27th, 2018
5 months agofah2 ferulic acid 5-hydroxylase2:
 
GRMZM2G100158
Ren, Y et al. 2023. Application of Methionine Increases the Germination Rate of Maize Seeds by Triggering Multiple Phenylpropanoid Biosynthetic Genes at Transcript Levels. Plants. 12:3802.   AT4G36220 (TAIR)
LOC_Os10g36848 (MSU/TIGR)
Reference: November 26th, 2023
Gene Product: May 4th, 2018
Gene Model: May 4th, 2018
5 months agoacco5 1-aminocyclopropane-1-carboxylate oxidase5:
 
GRMZM2G013448
Ren, Y et al. 2023. Application of Methionine Increases the Germination Rate of Maize Seeds by Triggering Multiple Phenylpropanoid Biosynthetic Genes at Transcript Levels. Plants. 12:3802.     Reference: November 26th, 2023
Gene Product: May 16th, 2016
Gene Model: June 15th, 2021
5 months agoccp17 cysteine protease17:
 
GRMZM2G166870
Ren, Y et al. 2023. Application of Methionine Increases the Germination Rate of Maize Seeds by Triggering Multiple Phenylpropanoid Biosynthetic Genes at Transcript Levels. Plants. 12:3802.     Reference: November 26th, 2023
Gene Product: October 11th, 2021
Gene Model: October 11th, 2021
5 months agoexpb13 beta expansin13:
 
   Keyu Tao et al. 2023. Overexpression of ZmEXPA5 reduces anthesis-silking interval and increases grain yield under drought and well-watered conditions in maize Mol Breed. :doi: 10.1007/s11032-023-01432-x.     Reference: November 24th, 2023
Gene Product: April 24th, 2008
5 months agoGRMZM2G108077  :
 
   Shi, X et al. 2019. Sci. Rep. 9:212     Reference: November 24th, 2023
Gene Product: September 18th, 2015
5 months agomam2 mRNA adenosine methylase2:
 
   Luo, JH et al. 2023. RNA m6A modification facilitates DNA methylation during maize kernel development. Plant Physiol. :doi: 10.1093/plphys/kiad625.   AT4G09980 (TAIR) Reference: November 24th, 2023
Gene Product: November 24th, 2023
5 months agoexpb18 beta expansin18:
 
   Keyu Tao et al. 2023. Overexpression of ZmEXPA5 reduces anthesis-silking interval and increases grain yield under drought and well-watered conditions in maize Mol Breed. :doi: 10.1007/s11032-023-01432-x.     Reference: November 24th, 2023
Gene Product: April 24th, 2008
5 months agoexpb10d beta expansin10d:
3.04
GRMZM2G164785
Keyu Tao et al. 2023. Overexpression of ZmEXPA5 reduces anthesis-silking interval and increases grain yield under drought and well-watered conditions in maize Mol Breed. :doi: 10.1007/s11032-023-01432-x.     Reference: November 24th, 2023
Gene Product: April 24th, 2008
Variation: April 23rd, 2008
Gene Model: March 2nd, 2016
5 months agotubtf4 TUB-transcription factor 4:
2.03
GRMZM2G108228
Shi, X et al. 2019. Sci. Rep. 9:212     Reference: November 24th, 2023
Gene Product: September 29th, 2015
Variation: September 1st, 2003
Gene Model: September 29th, 2015
5 months agoarftf5 ARF-transcription factor 5:
 
   Shi, X et al. 2019. Sci. Rep. 9:212     Reference: November 24th, 2023
Gene Product: January 29th, 2022
5 months agoexpa2 alpha expansin2:
5.05
GRMZM2G105844
Keyu Tao et al. 2023. Overexpression of ZmEXPA5 reduces anthesis-silking interval and increases grain yield under drought and well-watered conditions in maize Mol Breed. :doi: 10.1007/s11032-023-01432-x.     Reference: November 24th, 2023
Gene Product: March 12th, 2008
Variation: September 1st, 2003
Gene Model: March 2nd, 2016
5 months agoexpa5 alpha expansin5:
6.06
GRMZM2G361064
Keyu Tao et al. 2023. Overexpression of ZmEXPA5 reduces anthesis-silking interval and increases grain yield under drought and well-watered conditions in maize Mol Breed. :doi: 10.1007/s11032-023-01432-x.     Reference: November 24th, 2023
Gene Product: March 12th, 2008
Variation: November 24th, 2023
Gene Model: March 2nd, 2016
5 months agoexpb10a beta expansin10a:
9.07
GRMZM2G089699
Keyu Tao et al. 2023. Overexpression of ZmEXPA5 reduces anthesis-silking interval and increases grain yield under drought and well-watered conditions in maize Mol Breed. :doi: 10.1007/s11032-023-01432-x.     Reference: November 24th, 2023
Gene Product: April 24th, 2008
Variation: May 31st, 2010
Gene Model: March 2nd, 2016
5 months agoexpb11 beta expansin11:
5.06
GRMZM2G127106
Keyu Tao et al. 2023. Overexpression of ZmEXPA5 reduces anthesis-silking interval and increases grain yield under drought and well-watered conditions in maize Mol Breed. :doi: 10.1007/s11032-023-01432-x.     Reference: November 24th, 2023
Gene Product: April 24th, 2008
Variation: May 22nd, 2014
Gene Model: March 2nd, 2016
5 months agoexpb14 beta expansin14:
 
GRMZM2G118873
Keyu Tao et al. 2023. Overexpression of ZmEXPA5 reduces anthesis-silking interval and increases grain yield under drought and well-watered conditions in maize Mol Breed. :doi: 10.1007/s11032-023-01432-x.     Reference: November 24th, 2023
Gene Product: April 24th, 2008
Gene Model: January 4th, 2019
5 months agoexpb15 beta expansin15:
 
GRMZM2G121308
Keyu Tao et al. 2023. Overexpression of ZmEXPA5 reduces anthesis-silking interval and increases grain yield under drought and well-watered conditions in maize Mol Breed. :doi: 10.1007/s11032-023-01432-x.     Reference: November 24th, 2023
Gene Product: April 24th, 2008
Gene Model: January 4th, 2019
5 months agoexpa7 alpha expansin7:
 
GRMZM2G127029
Keyu Tao et al. 2023. Overexpression of ZmEXPA5 reduces anthesis-silking interval and increases grain yield under drought and well-watered conditions in maize Mol Breed. :doi: 10.1007/s11032-023-01432-x.     Reference: November 24th, 2023
Gene Product: March 12th, 2008
Gene Model: November 9th, 2020
5 months agocl6407_1a  :
2.03
   Shi, X et al. 2019. Sci. Rep. 9:212     Reference: November 24th, 2023
Gene Product: November 26th, 2019
5 months agoexpb10c beta expansin10c:
3.04
GRMZM2G007685
Keyu Tao et al. 2023. Overexpression of ZmEXPA5 reduces anthesis-silking interval and increases grain yield under drought and well-watered conditions in maize Mol Breed. :doi: 10.1007/s11032-023-01432-x.     Reference: November 24th, 2023
Gene Product: April 24th, 2008
Variation: April 23rd, 2008
Gene Model: March 2nd, 2016
5 months agolox4 lipoxygenase4:
1.09
GRMZM2G109056
Yequn Wu et al. 2023. DNA methylation and lipid metabolism are involved in GA-induced maize aleurone layers PCD as revealed by transcriptome analysis. 23:584.     Reference: November 23rd, 2023
Gene Product: January 3rd, 2018
Variation: February 25th, 2021
Gene Model: June 10th, 2014
5 months agoprx39 peroxidase39:
 
GRMZM2G085967
Yequn Wu et al. 2023. DNA methylation and lipid metabolism are involved in GA-induced maize aleurone layers PCD as revealed by transcriptome analysis. 23:584.     Reference: November 23rd, 2023
Gene Product: September 18th, 2015
Gene Model: September 22nd, 2018
5 months agosod16 superoxide dismutase16:
 
GRMZM2G173628
Yequn Wu et al. 2023. DNA methylation and lipid metabolism are involved in GA-induced maize aleurone layers PCD as revealed by transcriptome analysis. 23:584.     Reference: November 23rd, 2023
Gene Product: October 4th, 2021
Gene Model: October 4th, 2021
5 months agoAF546188.1_FG006  :
 
   Hurst, JP et al. 2023. Editing the 19 kDa alpha-zein gene family generates non-opaque2-based quality protein maize. Plant Biotechnol J. :doi: 10.1111/pbi.14237.     Reference: November 21st, 2023
Gene Product: September 1st, 2003
5 months agoppr264 pentatricopeptide repeat protein264:
 
   Williams, MM, II et al. 2023. First report of severe tolpyralate sensitivity in corn (Zea mays) discovers a novel genetic factor conferring crop response to an herbicide. Pest Manag Sci.     Reference: November 21st, 2023
Gene Product: December 27th, 2016
5 months agozpl2b zein polypeptidesL2b:
7.02
AF546188.1_FG002
Hurst, JP et al. 2023. Editing the 19 kDa alpha-zein gene family generates non-opaque2-based quality protein maize. Plant Biotechnol J. :doi: 10.1111/pbi.14237.     Reference: November 21st, 2023
Gene Product: September 1st, 2003
Variation: January 14th, 2015
Gene Model: January 14th, 2015
5 months agozpl3a zein polypeptidesL3a:
4.08
   Hurst, JP et al. 2023. Editing the 19 kDa alpha-zein gene family generates non-opaque2-based quality protein maize. Plant Biotechnol J. :doi: 10.1111/pbi.14237.     Reference: November 21st, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
5 months agoumc1240  :
5.00
AC220970.4_FG002
Williams, MM, II et al. 2023. First report of severe tolpyralate sensitivity in corn (Zea mays) discovers a novel genetic factor conferring crop response to an herbicide. Pest Manag Sci.     Reference: November 21st, 2023
Variation: September 1st, 2003
Gene Model: January 25th, 2020
5 months agoumc1253  :
5.00
GRMZM2G084164
Williams, MM, II et al. 2023. First report of severe tolpyralate sensitivity in corn (Zea mays) discovers a novel genetic factor conferring crop response to an herbicide. Pest Manag Sci.     Reference: November 21st, 2023
Variation: March 18th, 2021
Gene Model: June 13th, 2018
5 months agoumc1491  :
5.00
GRMZM2G019866
Williams, MM, II et al. 2023. First report of severe tolpyralate sensitivity in corn (Zea mays) discovers a novel genetic factor conferring crop response to an herbicide. Pest Manag Sci.     Reference: November 21st, 2023
Variation: September 1st, 2003
Gene Model: November 28th, 2017
5 months agohsftf22 HSF-transcription factor 22:
 
   Williams, MM, II et al. 2023. First report of severe tolpyralate sensitivity in corn (Zea mays) discovers a novel genetic factor conferring crop response to an herbicide. Pest Manag Sci.     Reference: November 21st, 2023
Gene Product: May 15th, 2020
5 months agoumc1811  :
1.06
AC187262.4_FG007
Hurst, JP et al. 2023. Editing the 19 kDa alpha-zein gene family generates non-opaque2-based quality protein maize. Plant Biotechnol J. :doi: 10.1111/pbi.14237.     Reference: November 21st, 2023
Variation: February 1st, 2017
Gene Model: February 1st, 2017
5 months agoumc1976  :
1.02
GRMZM2G162535
Hurst, JP et al. 2023. Editing the 19 kDa alpha-zein gene family generates non-opaque2-based quality protein maize. Plant Biotechnol J. :doi: 10.1111/pbi.14237.     Reference: November 21st, 2023
Variation: December 22nd, 2016
Gene Model: December 23rd, 2016
5 months agoben1 bentazon resistance1:
5.01
GRMZM2G090432
Williams, MM, II et al. 2023. First report of severe tolpyralate sensitivity in corn (Zea mays) discovers a novel genetic factor conferring crop response to an herbicide. Pest Manag Sci.     Reference: November 21st, 2023
Gene Product: December 30th, 2022
Variation: February 12th, 2010
Gene Model: July 27th, 2016
5 months agoznod1 Zea nodulation homolog1:
9.02
GRMZM2G052562
Hurst, JP et al. 2023. Editing the 19 kDa alpha-zein gene family generates non-opaque2-based quality protein maize. Plant Biotechnol J. :doi: 10.1111/pbi.14237.     Reference: November 21st, 2023
Variation: September 29th, 2015
Gene Model: September 29th, 2015
5 months agopco066796  :
1.06
GRMZM2G392791
Hurst, JP et al. 2023. Editing the 19 kDa alpha-zein gene family generates non-opaque2-based quality protein maize. Plant Biotechnol J. :doi: 10.1111/pbi.14237.     Reference: November 21st, 2023
Variation: September 25th, 2007
Gene Model: February 9th, 2020
5 months agoz1A-1 alpha zein 19kDa A-1:
4.02
GRMZM2G026939
Hurst, JP et al. 2023. Editing the 19 kDa alpha-zein gene family generates non-opaque2-based quality protein maize. Plant Biotechnol J. :doi: 10.1111/pbi.14237.     Reference: November 21st, 2023
Gene Product: September 1st, 2003
Gene Model: April 28th, 2021
5 months agomstr4 monosaccharide transporter4:
9.04
GRMZM2G034061
Nan Sun et al. 2023. Genome-wide analysis of sugar transporter genes in maize (Zea mays L.): identification, characterization and their expression profiles during kernel development PeerJ. :doi: 10.7717/peerj.16423.     Reference: November 21st, 2023
Gene Product: January 2nd, 2023
Variation: July 14th, 2008
Gene Model: September 17th, 2015
5 months agosut5 sucrose transporter5:
 
GRMZM2G081589
Nan Sun et al. 2023. Genome-wide analysis of sugar transporter genes in maize (Zea mays L.): identification, characterization and their expression profiles during kernel development PeerJ. :doi: 10.7717/peerj.16423.     Reference: November 21st, 2023
Gene Product: September 14th, 2013
Variation: April 13th, 2017
Gene Model: November 3rd, 2015
5 months agoimpb14 importin beta14:
5.00
GRMZM2G022258
Williams, MM, II et al. 2023. First report of severe tolpyralate sensitivity in corn (Zea mays) discovers a novel genetic factor conferring crop response to an herbicide. Pest Manag Sci.     Reference: November 21st, 2023
Gene Product: November 15th, 2022
Gene Model: March 11th, 2022
5 months agoakin3 AKINbetagamma-1 protein kinase3:
 
GRMZM2G014170
Williams, MM, II et al. 2023. First report of severe tolpyralate sensitivity in corn (Zea mays) discovers a novel genetic factor conferring crop response to an herbicide. Pest Manag Sci.     Reference: November 21st, 2023
Gene Product: December 4th, 2020
Gene Model: December 4th, 2020
5 months agosro4 similar to RCD one4:
5.00
   Williams, MM, II et al. 2023. First report of severe tolpyralate sensitivity in corn (Zea mays) discovers a novel genetic factor conferring crop response to an herbicide. Pest Manag Sci.     Reference: November 21st, 2023
Gene Product: September 7th, 2018
Variation: September 25th, 2007
5 months agosig6 sigma-like factor6:
5.00
GRMZM2G144196
Williams, MM, II et al. 2023. First report of severe tolpyralate sensitivity in corn (Zea mays) discovers a novel genetic factor conferring crop response to an herbicide. Pest Manag Sci.     Reference: November 21st, 2023
Gene Product: December 24th, 2019
Variation: June 24th, 2015
Gene Model: May 8th, 2015
5 months agoz1B1 alpha zein 19kDa B1:
 
AF546188.1_FG001
Hurst, JP et al. 2023. Editing the 19 kDa alpha-zein gene family generates non-opaque2-based quality protein maize. Plant Biotechnol J. :doi: 10.1111/pbi.14237.     Reference: November 21st, 2023
Gene Product: September 1st, 2003
Gene Model: September 20th, 2021
5 months agostp24 sugar transport protein24:
 
GRMZM2G159559
Nan Sun et al. 2023. Genome-wide analysis of sugar transporter genes in maize (Zea mays L.): identification, characterization and their expression profiles during kernel development PeerJ. :doi: 10.7717/peerj.16423.     Reference: November 21st, 2023
Gene Product: January 2nd, 2023
Gene Model: January 12th, 2022
5 months agoandr1 anthocyanidin reductase1:
 
GRMZM2G097854
Hurst, JP et al. 2023. Editing the 19 kDa alpha-zein gene family generates non-opaque2-based quality protein maize. Plant Biotechnol J. :doi: 10.1111/pbi.14237.   AT1G61720 (TAIR) Reference: November 21st, 2023
Gene Product: August 14th, 2022
Gene Model: August 14th, 2022
5 months agomctp16 multiple C2 domain and transmembrane region protein16:
9.04
GRMZM2G108149
Hurst, JP et al. 2023. Editing the 19 kDa alpha-zein gene family generates non-opaque2-based quality protein maize. Plant Biotechnol J. :doi: 10.1111/pbi.14237.     Reference: November 21st, 2023
Gene Product: August 3rd, 2022
Gene Model: June 20th, 2020
5 months agoIDP669  :
1.08
GRMZM2G064605
Hurst, JP et al. 2023. Editing the 19 kDa alpha-zein gene family generates non-opaque2-based quality protein maize. Plant Biotechnol J. :doi: 10.1111/pbi.14237.     Reference: November 21st, 2023
Variation: March 31st, 2005
Gene Model: February 14th, 2019
5 months agoIDP3872  :
2.06
GRMZM2G140041
Hurst, JP et al. 2023. Editing the 19 kDa alpha-zein gene family generates non-opaque2-based quality protein maize. Plant Biotechnol J. :doi: 10.1111/pbi.14237.     Reference: November 21st, 2023
Variation: March 31st, 2005
Gene Model: May 2nd, 2021
5 months agoIDP1619  :
5.00
GRMZM2G019695
Williams, MM, II et al. 2023. First report of severe tolpyralate sensitivity in corn (Zea mays) discovers a novel genetic factor conferring crop response to an herbicide. Pest Manag Sci.     Reference: November 21st, 2023
Variation: March 31st, 2005
Gene Model: November 28th, 2017
5 months agotst1 tonoplast sugar transporter1:
1.05
GRMZM2G083173
Nan Sun et al. 2023. Genome-wide analysis of sugar transporter genes in maize (Zea mays L.): identification, characterization and their expression profiles during kernel development PeerJ. :doi: 10.7717/peerj.16423.     Reference: November 21st, 2023
Gene Product: October 28th, 2021
Gene Model: February 8th, 2020
5 months agonpf6 nitrate transporter/peptide transporter family6:
 
GRMZM2G137421
Mengqiu He et al. 2023. Maize genotypes regulate the feedbacks between maize nitrogen uptake and soil nitrogen transformations Soil Biol Biochem. :doi: 10.1016/j.soilbio.2023.109251.     Reference: November 20th, 2023
Gene Product: September 1st, 2003
Gene Model: May 21st, 2019
5 months agoamt6 ammonium transporter6:
 
GRMZM2G080045
Mengqiu He et al. 2023. Maize genotypes regulate the feedbacks between maize nitrogen uptake and soil nitrogen transformations Soil Biol Biochem. :doi: 10.1016/j.soilbio.2023.109251.     Reference: November 20th, 2023
Gene Product: July 8th, 2013
Gene Model: May 21st, 2019
5 months agoZm00001d004248  :
2.05
GRMZM2G083935
Li, HG et al. 2023. Characterization of Glycosyltransferase Family 1 (GT1) and Their Potential Roles in Anthocyanin Biosynthesis in Maize Genes. 14:2099.     Reference: November 18th, 2023
Variation: September 25th, 2007
Gene Model: August 13th, 2021
5 months agosk1 silkless ears1:
2.03 - 2.04
GRMZM2G021786
Li, HG et al. 2023. Characterization of Glycosyltransferase Family 1 (GT1) and Their Potential Roles in Anthocyanin Biosynthesis in Maize Genes. 14:2099.   AT3G22250 (TAIR)
LOC_Os04g44354 (MSU/TIGR)
Reference: November 18th, 2023
Gene Product: September 24th, 2018
Variation: August 21st, 2018
Gene Model: October 31st, 2016
5 months agosm2 salmon silk2:
2.07
GRMZM2G180283
Li, HG et al. 2023. Characterization of Glycosyltransferase Family 1 (GT1) and Their Potential Roles in Anthocyanin Biosynthesis in Maize Genes. 14:2099.     Reference: November 18th, 2023
Gene Product: May 26th, 2016
Variation: May 26th, 2016
Gene Model: May 26th, 2016
5 months agoczog1 cis-zeatin O-glucosyltransferase1:
2.03
GRMZM2G168474
Li, HG et al. 2023. Characterization of Glycosyltransferase Family 1 (GT1) and Their Potential Roles in Anthocyanin Biosynthesis in Maize Genes. 14:2099.     Reference: November 18th, 2023
Gene Product: March 20th, 2014
Variation: October 25th, 2012
Gene Model: March 20th, 2014
5 months agoiaglu1 indol-3-ylacetyl glucosyl transferase1:
1.09
GRMZM2G024131
Li, HG et al. 2023. Characterization of Glycosyltransferase Family 1 (GT1) and Their Potential Roles in Anthocyanin Biosynthesis in Maize Genes. 14:2099.     Reference: November 18th, 2023
Gene Product: September 1st, 2003
Variation: January 30th, 2015
Gene Model: January 30th, 2015
5 months agobx8 benzoxazinone synthesis8:
4.01
GRMZM2G085054
Li, HG et al. 2023. Characterization of Glycosyltransferase Family 1 (GT1) and Their Potential Roles in Anthocyanin Biosynthesis in Maize Genes. 14:2099.     Reference: November 18th, 2023
Gene Product: October 11th, 2021
Variation: October 31st, 2011
Gene Model: October 20th, 2011
5 months agougt1 UDP-glucosyl transferase1:
 
GRMZM2G162755
Li, HG et al. 2023. Characterization of Glycosyltransferase Family 1 (GT1) and Their Potential Roles in Anthocyanin Biosynthesis in Maize Genes. 14:2099.     Reference: November 18th, 2023
Gene Product: September 24th, 2018
Gene Model: May 6th, 2016
5 months agoufgt2 UDP-flavonol-glycosyltransferase2:
 
GRMZM2G117878
Li, HG et al. 2023. Characterization of Glycosyltransferase Family 1 (GT1) and Their Potential Roles in Anthocyanin Biosynthesis in Maize Genes. 14:2099.     Reference: November 18th, 2023
Gene Product: July 4th, 2018
Variation: July 4th, 2018
Gene Model: July 4th, 2018
5 months agougt9250 uridinediphosphate-dependent glycosyltransferase9250:
 
GRMZM2G156127
Li, HG et al. 2023. Characterization of Glycosyltransferase Family 1 (GT1) and Their Potential Roles in Anthocyanin Biosynthesis in Maize Genes. 14:2099.     Reference: November 18th, 2023
Gene Product: October 11th, 2021
Gene Model: May 12th, 2020
5 months agocep2 C-terminally encoded peptide2:
 
GRMZM2G156026
Li, HG et al. 2023. Characterization of Glycosyltransferase Family 1 (GT1) and Their Potential Roles in Anthocyanin Biosynthesis in Maize Genes. 14:2099.     Reference: November 18th, 2023
Gene Product: October 23rd, 2020
Gene Model: October 23rd, 2020
5 months agoufgt4 UDP-flavonol-glycosyltransferase4:
 
GRMZM2G015709
Li, HG et al. 2023. Characterization of Glycosyltransferase Family 1 (GT1) and Their Potential Roles in Anthocyanin Biosynthesis in Maize Genes. 14:2099.     Reference: November 18th, 2023
Gene Product: July 4th, 2018
Gene Model: November 20th, 2020
5 months agougt5174 uridinediphosphate-dependent glycosyltransferase5174:
 
GRMZM2G463996
Li, HG et al. 2023. Characterization of Glycosyltransferase Family 1 (GT1) and Their Potential Roles in Anthocyanin Biosynthesis in Maize Genes. 14:2099.     Reference: November 18th, 2023
Gene Product: October 11th, 2021
Gene Model: October 11th, 2021
5 months agoIDP641  :
1.07
GRMZM2G373124
Li, HG et al. 2023. Characterization of Glycosyltransferase Family 1 (GT1) and Their Potential Roles in Anthocyanin Biosynthesis in Maize Genes. 14:2099.     Reference: November 18th, 2023
Variation: March 31st, 2005
Gene Model: February 14th, 2019
5 months agoczog2 cis-zeatin O-glucosyltransferase2:
8.07
GRMZM2G110511
Li, HG et al. 2023. Characterization of Glycosyltransferase Family 1 (GT1) and Their Potential Roles in Anthocyanin Biosynthesis in Maize Genes. 14:2099.     Reference: November 18th, 2023
Gene Product: March 20th, 2014
Variation: March 25th, 2009
Gene Model: March 21st, 2014
5 months agogl8 glossy8:
5.05
   Liu, J et al. 2023. Trade-offs between the accumulation of cuticular wax and jasmonic acid-mediated herbivory resistance in maize. J Integr Plant Biol. :doi: 10.1111/jipb.13586.     Reference: November 17th, 2023
Gene Product: September 1st, 2003
Variation: November 17th, 2023
5 months agowrky29 WRKY-transcription factor 29:
 
   Fu, JY et al. 2022. ZmEREB92 interacts with ZmMYC2 to activate maize terpenoid phytoalexin biosynthesis upon Fusarium graminearum infection through Jasmonic acid/Ethylene signaling New Phytol. :doi: 10.1111/nph.18590.     Reference: November 17th, 2023
Gene Product: July 24th, 2017
5 months agoelfa7 elongation factor alpha7:
8.03
GRMZM2G110509
Fu, JY et al. 2023. ZmEREB92 plays a negative role in seed germination by regulating ethylene signaling and starch mobilization in maize PLoS Genetics. 19:e1011052.     Reference: November 17th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: July 27th, 2016
5 months agoetr2 ethylene receptor homolog2:
10.04
GRMZM2G420801
Fu, JY et al. 2023. ZmEREB92 plays a negative role in seed germination by regulating ethylene signaling and starch mobilization in maize PLoS Genetics. 19:e1011052.     Reference: November 17th, 2023
Variation: October 2nd, 2015
Gene Model: October 2nd, 2015
5 months agocyp18 cytochrome P-450 18:
 
GRMZM2G470442
Katral, A et al. 2023. Multilocus functional characterization of indigenous and exotic inbreds for dgat1-2, fatb, ge2 and wri1a genes affecting kernel oil and fatty acid profile in maize Gene. :doi: 10.1016/j.gene.2023.148001.   LOC_Os03g30420 (MSU/TIGR) Reference: November 17th, 2023
Gene Product: August 18th, 2015
Variation: March 25th, 2023
Gene Model: August 18th, 2015
5 months agocipk16 calcineurin B-like-interacting protein kinase16:
 
GRMZM2G330049
Fu, JY et al. 2023. ZmEREB92 plays a negative role in seed germination by regulating ethylene signaling and starch mobilization in maize PLoS Genetics. 19:e1011052.   AT5G10930 (TAIR) Reference: November 17th, 2023
Gene Product: May 13th, 2014
Gene Model: August 20th, 2018
5 months agosnrkII3 SnRK2 serine threonine protein kinase3:
1.05
GRMZM2G180916
Fu, JY et al. 2023. ZmEREB92 plays a negative role in seed germination by regulating ethylene signaling and starch mobilization in maize PLoS Genetics. 19:e1011052.     Reference: November 17th, 2023
Gene Product: April 14th, 2018
Gene Model: February 11th, 2015
5 months agovpe4 vacuolar processing enzyme4:
 
   Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.     Reference: November 16th, 2023
Gene Product: September 29th, 2022
5 months agoGRMZM2G048775  :
 
   Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.     Reference: November 16th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G361475  :
 
   Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.     Reference: November 16th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G150134  :
 
   Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.     Reference: November 16th, 2023
Gene Product: September 18th, 2015
5 months agoLOC103626998  :
 
   Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.   AT1G17110 (TAIR) Reference: November 16th, 2023
Gene Product: November 16th, 2023
5 months agoarftf9 ARF-transcription factor 9:
3.04
   Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.     Reference: November 16th, 2023
Gene Product: January 29th, 2022
Variation: September 25th, 2007
5 months agomyb28 MYB-transcription factor 28:
4.05
   Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.     Reference: November 16th, 2023
Variation: September 25th, 2007
5 months agopsei2 cystatin2:
8.08
   Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.     Reference: November 16th, 2023
Gene Product: April 21st, 2008
Variation: January 15th, 2015
5 months agomyb83 MYB-transcription factor 83:
1.07
   Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.     Reference: November 16th, 2023
Variation: November 4th, 2016
5 months agosee2b senescence enhanced2b:
 
GRMZM2G093032
Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.     Reference: November 16th, 2023
Variation: August 1st, 2011
Gene Model: November 20th, 2014
5 months agoabi27 ABI3-VP1-transcription factor 27:
 
   Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.     Reference: November 16th, 2023
Gene Product: January 29th, 2022
5 months agoarftf10 ARF-transcription factor 10:
 
   Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.     Reference: November 16th, 2023
Gene Product: January 29th, 2022
5 months agobzip22 bZIP-transcription factor 22:
 
   Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.   AT1G43700 (TAIR) Reference: November 16th, 2023
Gene Product: August 21st, 2018
Variation: September 24th, 2018
5 months agobzip4 bZIP-transcription factor 4:
 
   Zhang, C et al. 2023. Comparative Transcriptome Analysis Reveals the Underlying Response Mechanism to Salt Stress in Maize Seedling Roots Metabolites. 13:1155.     Reference: November 16th, 2023
Gene Product: August 21st, 2018
Variation: August 21st, 2018
5 months agoelfa6 elongation factor alpha6:
7.04
GRMZM2G057535
Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.     Reference: November 16th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: February 20th, 2021
5 months agobb1 big brother1:
9.07
GRMZM2G141084
Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.   AT3G63530 (TAIR) Reference: November 16th, 2023
Gene Product: March 26th, 2020
Gene Model: October 14th, 2018
5 months agortl2 reversion-to-ethylene sensitivity1 like2:
3.08
GRMZM2G077293
Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.     Reference: November 16th, 2023
Variation: June 10th, 2016
Gene Model: June 10th, 2016
5 months agogte102 global transcription factor group E:
5.05
GRMZM2G006707
Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.     Reference: November 16th, 2023
Variation: September 1st, 2003
Gene Model: May 20th, 2020
5 months agosnrkII6 SnRK2 serine threonine protein kinase6:
4.05
GRMZM2G130018
Zhang, C et al. 2023. Comparative Transcriptome Analysis Reveals the Underlying Response Mechanism to Salt Stress in Maize Seedling Roots Metabolites. 13:1155.     Reference: November 16th, 2023
Gene Product: April 14th, 2018
Variation: November 12th, 2014
Gene Model: November 12th, 2014
5 months agoatl1 auxin transporter-like1:
 
GRMZM2G128918
Zhang, PY et al. 2023. Molecular mechanism analysis of ZmRL6 positively regulating drought stress tolerance in maize Stress Biol. :doi: 10.1007/s44154-023-00125-x.   AT2G38120 (TAIR)
LOC_Os01g63770 (MSU/TIGR)
Reference: November 16th, 2023
Gene Product: April 19th, 2017
Variation: April 19th, 2017
Gene Model: March 12th, 2015
5 months agocyp17 cytochrome P-450 17:
 
GRMZM2G138008
Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.   LOC_Os07g41240 (MSU/TIGR)
Os07g0603700 (Gramene)
Reference: November 16th, 2023
Gene Product: August 18th, 2015
Gene Model: August 18th, 2015
5 months agopmei21 pectin methylesterase inhibitor21:
 
GRMZM2G458200
Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.     Reference: November 16th, 2023
Gene Product: January 8th, 2019
Gene Model: December 28th, 2019
5 months agopgl14 polygalacturonase14:
 
GRMZM5G814803
Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.     Reference: November 16th, 2023
Gene Product: October 4th, 2021
Gene Model: October 4th, 2021
5 months agopgl53 polygalacturonase53:
 
GRMZM2G435380
Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.     Reference: November 16th, 2023
Gene Product: October 4th, 2021
Gene Model: October 4th, 2021
5 months agoccp34 cysteine protease34:
 
GRMZM2G099765
Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.     Reference: November 16th, 2023
Gene Product: October 11th, 2021
Gene Model: October 11th, 2021
5 months agoprh41 protein phosphatase homolog41:
 
GRMZM2G103247
Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.     Reference: November 16th, 2023
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
5 months agowrky142 WRKY-transcription factor 142:
 
   Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.     Reference: November 16th, 2023
Gene Product: July 24th, 2017
5 months agoasg75  :
1.04
GRMZM5G882821
Jihong Zhang et al. 2023. Dynamic transcriptome landscape of maize pericarp development. Plant J. :doi: 10.1111/tpj.16548.     Reference: November 16th, 2023
Variation: September 19th, 2009
Gene Model: June 30th, 2017
5 months agoms44 male sterile44:
4.08
AC225127.3_FG003
Xing, JP et al. 2023. Mining genic resources regulating nitrogen-use efficiency based on integrative biological analyses and their breeding applications in maize and other crops. Plant J. :doi: 10.1111/tpj.16550.     Reference: November 15th, 2023
Gene Product: September 1st, 2003
Variation: January 6th, 2017
Gene Model: January 6th, 2017
5 months agots5 tassel seed5:
4.03 - 4.05
GRMZM2G177668
Cristina Guerrero-Méndez et al. 2023. Factors specifying sex determination in maize. Plant Reproduction. :doi: 10.1007/s00497-023-00485-4.     Reference: November 15th, 2023
Gene Product: December 30th, 2022
Variation: March 25th, 2019
Gene Model: March 25th, 2019
5 months agopbf1 prolamin-box binding factor1:
2.06
   Xing, JP et al. 2023. Mining genic resources regulating nitrogen-use efficiency based on integrative biological analyses and their breeding applications in maize and other crops. Plant J. :doi: 10.1111/tpj.16550.     Reference: November 15th, 2023
Gene Product: September 1st, 2003
Variation: April 20th, 2005
5 months agobnlg2057  :
1.06
GRMZM2G017629
Xing, JP et al. 2023. Mining genic resources regulating nitrogen-use efficiency based on integrative biological analyses and their breeding applications in maize and other crops. Plant J. :doi: 10.1111/tpj.16550.     Reference: November 15th, 2023
Variation: March 17th, 2021
Gene Model: August 25th, 2017
5 months agogbss1 granule-bound starch synthase1:
 
GRMZM2G008263
Xing, JP et al. 2023. Mining genic resources regulating nitrogen-use efficiency based on integrative biological analyses and their breeding applications in maize and other crops. Plant J. :doi: 10.1111/tpj.16550.     Reference: November 15th, 2023
Gene Product: June 4th, 2008
Variation: August 4th, 2011
Gene Model: November 20th, 2014
5 months agomads26 MADS-transcription factor 26:
 
   Xing, JP et al. 2023. Mining genic resources regulating nitrogen-use efficiency based on integrative biological analyses and their breeding applications in maize and other crops. Plant J. :doi: 10.1111/tpj.16550.     Reference: November 15th, 2023
Variation: March 7th, 2022
5 months agonlp4 NLP-transcription factor 4:
 
   Xing, JP et al. 2023. Mining genic resources regulating nitrogen-use efficiency based on integrative biological analyses and their breeding applications in maize and other crops. Plant J. :doi: 10.1111/tpj.16550.     Reference: November 15th, 2023
Gene Product: December 3rd, 2019
5 months agonlp6 NLP-transcription factor 6:
 
   Xing, JP et al. 2023. Mining genic resources regulating nitrogen-use efficiency based on integrative biological analyses and their breeding applications in maize and other crops. Plant J. :doi: 10.1111/tpj.16550.     Reference: November 15th, 2023
Gene Product: December 3rd, 2019
5 months agonlp8 NLP-transcription factor 8:
 
   Xing, JP et al. 2023. Mining genic resources regulating nitrogen-use efficiency based on integrative biological analyses and their breeding applications in maize and other crops. Plant J. :doi: 10.1111/tpj.16550.     Reference: November 15th, 2023
Gene Product: December 3rd, 2019
5 months agotcptf10 TCP-transcription factor 10:
 
   Xing, JP et al. 2023. Mining genic resources regulating nitrogen-use efficiency based on integrative biological analyses and their breeding applications in maize and other crops. Plant J. :doi: 10.1111/tpj.16550.     Reference: November 15th, 2023
Gene Product: September 27th, 2019
5 months agotcptf26 TCP-transcription factor 26:
 
   Xing, JP et al. 2023. Mining genic resources regulating nitrogen-use efficiency based on integrative biological analyses and their breeding applications in maize and other crops. Plant J. :doi: 10.1111/tpj.16550.     Reference: November 15th, 2023
Gene Product: September 27th, 2019
5 months agotcptf9 TCP-transcription factor 9:
 
   Xing, JP et al. 2023. Mining genic resources regulating nitrogen-use efficiency based on integrative biological analyses and their breeding applications in maize and other crops. Plant J. :doi: 10.1111/tpj.16550.     Reference: November 15th, 2023
Gene Product: September 27th, 2019
5 months agodof1 DNA-binding with one finger1:
1.06
   Xing, JP et al. 2023. Mining genic resources regulating nitrogen-use efficiency based on integrative biological analyses and their breeding applications in maize and other crops. Plant J. :doi: 10.1111/tpj.16550.     Reference: November 15th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
5 months agots3 tassel seed3:
1.09
   Cristina Guerrero-Méndez et al. 2023. Factors specifying sex determination in maize. Plant Reproduction. :doi: 10.1007/s00497-023-00485-4.     Reference: November 15th, 2023
Variation: September 1st, 2003
5 months agoamt3 ammonium transporter3:
 
GRMZM2G118950
Xing, JP et al. 2023. Mining genic resources regulating nitrogen-use efficiency based on integrative biological analyses and their breeding applications in maize and other crops. Plant J. :doi: 10.1111/tpj.16550.     Reference: November 15th, 2023
Gene Product: July 8th, 2013
Gene Model: July 8th, 2013
5 months agonrt4 nitrate transport4:
 
GRMZM2G163494
Xing, JP et al. 2023. Mining genic resources regulating nitrogen-use efficiency based on integrative biological analyses and their breeding applications in maize and other crops. Plant J. :doi: 10.1111/tpj.16550.     Reference: November 15th, 2023
Gene Product: September 1st, 2003
Gene Model: September 10th, 2014
5 months agorhcp1 ring hc protein1:
 
GRMZM2G024690
Xing, JP et al. 2023. Mining genic resources regulating nitrogen-use efficiency based on integrative biological analyses and their breeding applications in maize and other crops. Plant J. :doi: 10.1111/tpj.16550.     Reference: November 15th, 2023
Gene Product: November 14th, 2022
Variation: April 3rd, 2017
Gene Model: April 3rd, 2017
5 months agoamt7 ammonium transporter7:
 
GRMZM2G335218
Xing, JP et al. 2023. Mining genic resources regulating nitrogen-use efficiency based on integrative biological analyses and their breeding applications in maize and other crops. Plant J. :doi: 10.1111/tpj.16550.     Reference: November 15th, 2023
Gene Product: July 8th, 2013
Gene Model: May 21st, 2019
5 months agoxyl4 xylanase4:
 
GRMZM2G004856
Xing, JP et al. 2023. Mining genic resources regulating nitrogen-use efficiency based on integrative biological analyses and their breeding applications in maize and other crops. Plant J. :doi: 10.1111/tpj.16550.     Reference: November 15th, 2023
Gene Product: March 4th, 2020
Gene Model: March 4th, 2020
5 months agotcptf45 TCP-transcription factor 45:
 
   Xing, JP et al. 2023. Mining genic resources regulating nitrogen-use efficiency based on integrative biological analyses and their breeding applications in maize and other crops. Plant J. :doi: 10.1111/tpj.16550.     Reference: November 15th, 2023
Gene Product: September 27th, 2019
5 months agonpf1 nitrate transporter/peptide transporter family1:
10.03
GRMZM2G086496
Xing, JP et al. 2023. Mining genic resources regulating nitrogen-use efficiency based on integrative biological analyses and their breeding applications in maize and other crops. Plant J. :doi: 10.1111/tpj.16550.   AT1G12110 (TAIR) Reference: November 15th, 2023
Gene Product: September 1st, 2003
Variation: September 11th, 2017
Gene Model: September 11th, 2017
5 months agoGRMZM2G068699  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G116846  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G116902  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G136534  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G341934  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoAC211164.5_FGT004  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G029144  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G067096  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G443885  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoAC230013.2_FGT002  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G000107  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G029479  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G101221  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoAC205154.3_FGT005  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G061230  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G419953  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G028219  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G035506  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G061776  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G142011  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G176085  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G081928  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G042347  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G129935  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G138450  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G150780  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G323182  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G404676  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoAC208341.4_FGT007  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G037156  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G136158  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G365774  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G382379  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G015280  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G097934  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G116452  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G438129  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G006727  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G050829  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G136525  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G160062  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G407740  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agoGRMZM2G448051  :
 
   Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
5 months agopx13 peroxidase 13:
5.03
GRMZM2G134947
Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
Variation: September 1st, 2003
Gene Model: February 23rd, 2015
5 months agoumc1243  :
1.05 - 1.05
GRMZM2G085198
Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Variation: September 30th, 2016
Gene Model: October 1st, 2016
5 months agoprx112 peroxidase112:
 
GRMZM2G033985
Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
Gene Model: September 22nd, 2018
5 months agoprx59 peroxidase59:
 
GRMZM2G130904
Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
Gene Model: January 5th, 2022
5 months agoprx65 peroxidase65:
 
GRMZM2G442008
Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
Variation: April 8th, 2022
Gene Model: April 8th, 2022
5 months agoprx60 peroxidase60:
9.07
GRMZM2G063435
Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 18th, 2015
Gene Model: July 5th, 2022
5 months agoapx5 Cytosolic ascorbate peroxidase5:
6.07
GRMZM2G093346
Wang, Y et al. 2015. Systematic analysis of maize class III peroxidase gene family reveals a conserved subfamily involved in abiotic stress response. Gene. 566:95-108.     Reference: November 14th, 2023
Gene Product: September 1st, 2003
Variation: August 10th, 2012
Gene Model: August 29th, 2018
5 months agoamt8 ammonium transporter8:
1.11
GRMZM2G338809
Torres-Morales, B et al. 2023. Genetic diversity characterization of maize populations using molecular markers Ital J Agron. 18:2206.     Reference: November 13th, 2023
Gene Product: July 8th, 2013
Gene Model: May 21st, 2019
5 months agophi121  :
8.03
GRMZM2G136567
Torres-Morales, B et al. 2023. Genetic diversity characterization of maize populations using molecular markers Ital J Agron. 18:2206.     Reference: November 13th, 2023
Variation: September 1st, 2003
Gene Model: September 18th, 2018
5 months agomtl1 metallothionein1:
4.00
GRMZM2G164229
Torres-Morales, B et al. 2023. Genetic diversity characterization of maize populations using molecular markers Ital J Agron. 18:2206.     Reference: November 13th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: April 9th, 2015
5 months agotub1 beta tubulin1:
1.01
GRMZM2G164696
Torres-Morales, B et al. 2023. Genetic diversity characterization of maize populations using molecular markers Ital J Agron. 18:2206.     Reference: November 13th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: October 25th, 2013
5 months agoarftf35 ARF-transcription factor 35:
 
   Li, PC et al. 2023. Dynamics and genetic regulation of macronutrient concentrations during grain development in maize J Integr Agric. :doi: 10.1016/j.jia.2023.11.003.     Reference: November 13th, 2023
Gene Product: January 29th, 2022
5 months agoumc155  :
10.03
GRMZM2G101926
Torres-Morales, B et al. 2023. Genetic diversity characterization of maize populations using molecular markers Ital J Agron. 18:2206.     Reference: November 13th, 2023
Variation: September 1st, 2003
Gene Model: December 14th, 2017
5 months agogst3 glutathione transferase3:
3.05
GRMZM2G146246
Torres-Morales, B et al. 2023. Genetic diversity characterization of maize populations using molecular markers Ital J Agron. 18:2206.     Reference: November 13th, 2023
Gene Product: September 1st, 2003
Variation: August 17th, 2010
Gene Model: February 15th, 2021
5 months agocyp6 cytochrome P450:
7.02
   Torres-Morales, B et al. 2023. Genetic diversity characterization of maize populations using molecular markers Ital J Agron. 18:2206.     Reference: November 13th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
5 months agovq3 VQ motif-transcription factor3:
 
GRMZM2G318652
Torres-Morales, B et al. 2023. Genetic diversity characterization of maize populations using molecular markers Ital J Agron. 18:2206.     Reference: November 13th, 2023
Gene Product: August 31st, 2019
Gene Model: August 31st, 2019
5 months agolac11 laccase11:
 
GRMZM2G305526
Li, PC et al. 2023. Dynamics and genetic regulation of macronutrient concentrations during grain development in maize J Integr Agric. :doi: 10.1016/j.jia.2023.11.003.     Reference: November 13th, 2023
Gene Product: March 31st, 2018
Gene Model: March 3rd, 2020
5 months agolac12 laccase12:
 
GRMZM5G814718
Li, PC et al. 2023. Dynamics and genetic regulation of macronutrient concentrations during grain development in maize J Integr Agric. :doi: 10.1016/j.jia.2023.11.003.     Reference: November 13th, 2023
Gene Product: March 31st, 2018
Gene Model: March 3rd, 2020
5 months agocipk15 calcineurin B-like-interacting protein kinase15:
 
GRMZM2G113967
Li, PC et al. 2023. Dynamics and genetic regulation of macronutrient concentrations during grain development in maize J Integr Agric. :doi: 10.1016/j.jia.2023.11.003.     Reference: November 13th, 2023
Gene Product: August 25th, 2018
Variation: December 6th, 2021
Gene Model: September 8th, 2021
5 months agoppr60 pentatricopeptide repeat protein60:
1.08
GRMZM2G164018
Zang, J et al. 2023. DEFECTIVE KERNEL 56 functions in mitochondrial RNA editing and maize seed development. Plant Physiol. :doi: 10.1093/plphys/kiad598.     Reference: November 13th, 2023
Gene Product: December 27th, 2016
Variation: March 31st, 2005
Gene Model: February 14th, 2019
5 months agomate15 multidrug and toxic compound extrusion15:
 
   Zhou, L et al. 2023. A carbonic anhydrase, ZmCA4, contributes to photosynthetic efficiency, and modulates CO2 signaling gene expression by interacting with aquaporin ZmPIP2;6 in maize Plant Cell Physiol. :doi: 10.1093/pcp/pcad145.     Reference: November 11th, 2023
Gene Product: August 17th, 2015
5 months agocah6 carbonic anhydrase6:
8.06
GRMZM2G094165
Zhou, L et al. 2023. A carbonic anhydrase, ZmCA4, contributes to photosynthetic efficiency, and modulates CO2 signaling gene expression by interacting with aquaporin ZmPIP2;6 in maize Plant Cell Physiol. :doi: 10.1093/pcp/pcad145.     Reference: November 11th, 2023
Gene Product: February 26th, 2019
Variation: March 2nd, 2022
Gene Model: July 31st, 2014
5 months agoumc1039  :
4.09 - 4.09
GRMZM2G046024
Dennis O Omondi et al. 2023. Combination of linkage and association mapping with genomic prediction to infer QTL regions associated with gray leaf spot and northern corn leaf blight resistance in tropical maize Frontiers in Genetics. 14:1282673.     Reference: November 11th, 2023
Variation: September 1st, 2003
Gene Model: March 6th, 2021
5 months agoumc1965  :
3.04
GRMZM2G100881
Zhang, HR et al. 2023. Genome wide association analysis reveals multiple QTLs controlling root development in maize J Integr Agric. :doi: 10.1016/j.jia.2023.10.040.     Reference: November 11th, 2023
Variation: September 1st, 2003
Gene Model: March 5th, 2021
5 months agocah2 carbonic anhydrase2:
 
GRMZM2G348512
Zhou, L et al. 2023. A carbonic anhydrase, ZmCA4, contributes to photosynthetic efficiency, and modulates CO2 signaling gene expression by interacting with aquaporin ZmPIP2;6 in maize Plant Cell Physiol. :doi: 10.1093/pcp/pcad145.     Reference: November 11th, 2023
Gene Product: February 26th, 2019
Variation: May 25th, 2018
Gene Model: July 31st, 2014
5 months agocah3 carbonic anhydrase3:
 
GRMZM2G348512
Zhou, L et al. 2023. A carbonic anhydrase, ZmCA4, contributes to photosynthetic efficiency, and modulates CO2 signaling gene expression by interacting with aquaporin ZmPIP2;6 in maize Plant Cell Physiol. :doi: 10.1093/pcp/pcad145.     Reference: November 11th, 2023
Gene Product: February 26th, 2019
Gene Model: August 5th, 2014
5 months agocah1 carbonic anhydrase1:
 
GRMZM2G121878
Zhou, L et al. 2023. A carbonic anhydrase, ZmCA4, contributes to photosynthetic efficiency, and modulates CO2 signaling gene expression by interacting with aquaporin ZmPIP2;6 in maize Plant Cell Physiol. :doi: 10.1093/pcp/pcad145.     Reference: November 11th, 2023
Gene Product: February 26th, 2019
Variation: May 25th, 2018
Gene Model: July 31st, 2014
5 months agocah4 carbonic anhydrase4:
 
GRMZM2G414528
Zhou, L et al. 2023. A carbonic anhydrase, ZmCA4, contributes to photosynthetic efficiency, and modulates CO2 signaling gene expression by interacting with aquaporin ZmPIP2;6 in maize Plant Cell Physiol. :doi: 10.1093/pcp/pcad145.     Reference: November 11th, 2023
Gene Product: February 26th, 2019
Variation: November 11th, 2023
Gene Model: July 31st, 2014
5 months agocah5 carbonic anhydrase5:
 
GRMZM2G145101
Zhou, L et al. 2023. A carbonic anhydrase, ZmCA4, contributes to photosynthetic efficiency, and modulates CO2 signaling gene expression by interacting with aquaporin ZmPIP2;6 in maize Plant Cell Physiol. :doi: 10.1093/pcp/pcad145.     Reference: November 11th, 2023
Gene Product: February 26th, 2019
Gene Model: July 31st, 2014
5 months agoslac4 slow anion channel-associated4:
 
GRMZM2G169951
Zhou, L et al. 2023. A carbonic anhydrase, ZmCA4, contributes to photosynthetic efficiency, and modulates CO2 signaling gene expression by interacting with aquaporin ZmPIP2;6 in maize Plant Cell Physiol. :doi: 10.1093/pcp/pcad145.     Reference: November 11th, 2023
Gene Product: February 1st, 2018
Gene Model: February 1st, 2018
5 months agopgip2 polygalacturonase-inhibiting protein2:
 
GRMZM2G121312
Dennis O Omondi et al. 2023. Combination of linkage and association mapping with genomic prediction to infer QTL regions associated with gray leaf spot and northern corn leaf blight resistance in tropical maize Frontiers in Genetics. 14:1282673.     Reference: November 11th, 2023
Gene Product: September 4th, 2019
Gene Model: September 4th, 2019
5 months agosnrkII11 SnRK2 serine threonine protein kinase 11:
6.05
GRMZM2G063961
Zhou, L et al. 2023. A carbonic anhydrase, ZmCA4, contributes to photosynthetic efficiency, and modulates CO2 signaling gene expression by interacting with aquaporin ZmPIP2;6 in maize Plant Cell Physiol. :doi: 10.1093/pcp/pcad145.     Reference: November 11th, 2023
Gene Product: April 14th, 2018
Gene Model: February 11th, 2015
5 months agoIDP2557  :
5.00
GRMZM2G110881
Dennis O Omondi et al. 2023. Combination of linkage and association mapping with genomic prediction to infer QTL regions associated with gray leaf spot and northern corn leaf blight resistance in tropical maize Frontiers in Genetics. 14:1282673.     Reference: November 11th, 2023
Variation: March 31st, 2005
Gene Model: May 2nd, 2020
5 months agospk1 stress-induced protein kinase1:
5.05
GRMZM2G000278
Zhou, L et al. 2023. A carbonic anhydrase, ZmCA4, contributes to photosynthetic efficiency, and modulates CO2 signaling gene expression by interacting with aquaporin ZmPIP2;6 in maize Plant Cell Physiol. :doi: 10.1093/pcp/pcad145.     Reference: November 11th, 2023
Gene Product: April 14th, 2018
Variation: November 12th, 2014
Gene Model: November 12th, 2014
6 months agocrk5 crumpled kernel5:
 
   Zhang, H et al. 2023. A peptide chain release factor 2a gene regulates maize kernel development by modulating mitochondrial function Crop J. :doi: 10.1016/j.cj.2023.10.006.   AT1G56350 (TAIR) Reference: November 10th, 2023
Gene Product: November 10th, 2023
Variation: November 10th, 2023
6 months agonlp7 NLP-transcription factor 7:
1.01
GRMZM2G109509
Evandrei S Rossi et al. 2020. Genomic-wide association study for white spot resistance in a tropical maize germplasm Euphytica. 216:15.     Reference: November 10th, 2023
Gene Product: December 3rd, 2019
Gene Model: October 7th, 2017
6 months agoomt3 Caffeoyl CoA O-methyltransferase3:
 
GRMZM2G077486
Jatin Sharma et al. 2023. Surveying the genomic landscape of silage-quality traits in maize (Zea mays L.) Crop J. :doi: 10.1016/j.cj.2023.10.007.     Reference: November 10th, 2023
Gene Product: January 5th, 2014
Gene Model: May 13th, 2016
6 months agopld9 phospholipase D9:
 
GRMZM2G133943
Stella Bigirwa Ayesiga et al. 2023. Genome-wide association study and pathway analysis to decipher loci associated with Fusarium ear rot resistance in tropical maize germplasm Genet Resour Crop Evol. :doi: 10.1007/s10722-023-01793-4.     Reference: November 10th, 2023
Gene Product: August 9th, 2016
Gene Model: August 9th, 2016
6 months agocl3313_1  :
5.03
GRMZM2G089119
Evandrei S Rossi et al. 2020. Genomic-wide association study for white spot resistance in a tropical maize germplasm Euphytica. 216:15.     Reference: November 10th, 2023
Variation: September 25th, 2007
Gene Model: May 10th, 2020
6 months agogst2 glutathione S-transferase2:
10.03
GRMZM2G132093
Nengde Zeng et al. 2023. Expeditious profiling of polycyclic aromatic hydrocarbons transport and obstruction mechanisms in crop xylem sap proteins via proteomics and molecular docking. Environ Pollut. :doi: 10.1016/j.envpol.2023.122854.     Reference: November 9th, 2023
Gene Product: September 1st, 2003
Variation: July 7th, 2010
Gene Model: October 29th, 2015
6 months agoact5 actin5:
5.01
GRMZM2G152328
Nengde Zeng et al. 2023. Expeditious profiling of polycyclic aromatic hydrocarbons transport and obstruction mechanisms in crop xylem sap proteins via proteomics and molecular docking. Environ Pollut. :doi: 10.1016/j.envpol.2023.122854.     Reference: November 9th, 2023
Gene Product: September 1st, 2003
Variation: April 29th, 2020
Gene Model: April 29th, 2020
6 months agogpa1 glyceraldehyde-3-phosphate dehydrogenase1:
8.03
   Nengde Zeng et al. 2023. Expeditious profiling of polycyclic aromatic hydrocarbons transport and obstruction mechanisms in crop xylem sap proteins via proteomics and molecular docking. Environ Pollut. :doi: 10.1016/j.envpol.2023.122854.     Reference: November 9th, 2023
Gene Product: September 1st, 2003
Variation: April 12th, 2013
6 months agoaps1 ATP sulfurylase1:
1.10
GRMZM2G149952
Doyel Roy et al. 2023. Untying the regulatory roles of miRNAs in CuO-NPs stress response mechanism in maize: A genome-wide sRNA transcriptome analysis Chemosphere. :doi: 10.1016/j.chemosphere.2023.140628.     Reference: November 9th, 2023
Gene Product: September 1st, 2003
Variation: September 26th, 2017
Gene Model: September 26th, 2017
6 months agoumc1742  :
3.04
GRMZM2G114552
Nengde Zeng et al. 2023. Expeditious profiling of polycyclic aromatic hydrocarbons transport and obstruction mechanisms in crop xylem sap proteins via proteomics and molecular docking. Environ Pollut. :doi: 10.1016/j.envpol.2023.122854.     Reference: November 9th, 2023
Variation: September 1st, 2003
Gene Model: April 2nd, 2018
6 months agotls1 tasselless1:
1.11 - 1.12
GRMZM2G176209
Bienert, MD et al. 2023. Boron deficiency responses in maize (Zea mays L.) roots J Plant Nutr Soil Sci. :doi: 10.1002/jpln.202300173.     Reference: November 9th, 2023
Gene Product: January 27th, 2022
Variation: July 29th, 2014
Gene Model: April 2nd, 2014
6 months agotub4 beta tubulin4:
5.03
   Nengde Zeng et al. 2023. Expeditious profiling of polycyclic aromatic hydrocarbons transport and obstruction mechanisms in crop xylem sap proteins via proteomics and molecular docking. Environ Pollut. :doi: 10.1016/j.envpol.2023.122854.     Reference: November 9th, 2023
Gene Product: September 1st, 2003
Variation: August 20th, 2013
6 months agoprp2 pathogenesis-related protein2:
2.04
   Nengde Zeng et al. 2023. Expeditious profiling of polycyclic aromatic hydrocarbons transport and obstruction mechanisms in crop xylem sap proteins via proteomics and molecular docking. Environ Pollut. :doi: 10.1016/j.envpol.2023.122854.     Reference: November 9th, 2023
Gene Product: December 12th, 2022
Variation: September 1st, 2003
6 months agoccp35 cysteine protease35:
1.07
GRMZM2G456217
Nengde Zeng et al. 2023. Expeditious profiling of polycyclic aromatic hydrocarbons transport and obstruction mechanisms in crop xylem sap proteins via proteomics and molecular docking. Environ Pollut. :doi: 10.1016/j.envpol.2023.122854.     Reference: November 9th, 2023
Gene Product: October 11th, 2021
Gene Model: February 11th, 2020
6 months agolac22 laccase22:
 
GRMZM2G336337
Doyel Roy et al. 2023. Untying the regulatory roles of miRNAs in CuO-NPs stress response mechanism in maize: A genome-wide sRNA transcriptome analysis Chemosphere. :doi: 10.1016/j.chemosphere.2023.140628.     Reference: November 9th, 2023
Gene Product: March 31st, 2018
Gene Model: March 3rd, 2020
6 months agoIDP610  :
2.09
GRMZM2G152258
Nengde Zeng et al. 2023. Expeditious profiling of polycyclic aromatic hydrocarbons transport and obstruction mechanisms in crop xylem sap proteins via proteomics and molecular docking. Environ Pollut. :doi: 10.1016/j.envpol.2023.122854.     Reference: November 9th, 2023
Variation: March 31st, 2005
Gene Model: February 20th, 2019
6 months agodar2 monodehydroascorbate reductase2:
4.05
GRMZM2G134708
Nengde Zeng et al. 2023. Expeditious profiling of polycyclic aromatic hydrocarbons transport and obstruction mechanisms in crop xylem sap proteins via proteomics and molecular docking. Environ Pollut. :doi: 10.1016/j.envpol.2023.122854.     Reference: November 9th, 2023
Gene Product: October 15th, 2020
Gene Model: April 16th, 2020
6 months agostsl4 strictosidine synthase-like4:
 
   Pinto, VB et al. 2023. Transcriptome-based strategies for identifying aluminum tolerance genes in popcorn (Zea mays L. var. everta). Sci. Rep.. 13:19400.     Reference: November 8th, 2023
Gene Product: September 29th, 2023
6 months agobnlg149  :
1.00
GRMZM5G833153
Sen, S et al. 2023. Maize Feature Store: A centralized resource to manage and analyze curated maize multi-omics features for machine learning applications. Database. 2023:doi: 10.1093/database/baad078.     Reference: November 8th, 2023
Variation: September 1st, 2003
Gene Model: August 1st, 2017
6 months agobnlg2190  :
10.06
GRMZM2G019986
Pinto, VB et al. 2023. Transcriptome-based strategies for identifying aluminum tolerance genes in popcorn (Zea mays L. var. everta). Sci. Rep.. 13:19400.     Reference: November 8th, 2023
Variation: September 1st, 2003
Gene Model: January 16th, 2018
6 months agoole4 oleosin4:
1.09
GRMZM2G480954
Fu, YX et al. 2023. Spatial transcriptomics uncover sucrose post-phloem transport during maize kernel development Nat Commun. 14:7191.     Reference: November 8th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: October 9th, 2015
6 months agogst7 glutathione transferase7:
3.05
GRMZM2G028556
Pinto, VB et al. 2023. Transcriptome-based strategies for identifying aluminum tolerance genes in popcorn (Zea mays L. var. everta). Sci. Rep.. 13:19400.     Reference: November 8th, 2023
Gene Product: September 1st, 2003
Variation: August 9th, 2010
Gene Model: July 27th, 2016
6 months agosodh1 sorbitol dehydrogenase homolog1:
1.07
   Fu, YX et al. 2023. Spatial transcriptomics uncover sucrose post-phloem transport during maize kernel development Nat Commun. 14:7191.     Reference: November 8th, 2023
Gene Product: September 1st, 2003
Variation: August 13th, 2013
6 months agombd105 methyl binding domain105:
3.04
GRMZM2G476933
Dong, XM et al. 2023. The conservation of allelic DNA methylation and its relationship with imprinting in maize J Exp Bot. :doi: 10.1093/jxb/erad440     Reference: November 8th, 2023
Gene Product: December 24th, 2015
Variation: February 6th, 2010
Gene Model: December 24th, 2015
6 months agosweet4a sugars will eventually be exported transporter4a:
 
GRMZM2G000812
Pinto, VB et al. 2023. Transcriptome-based strategies for identifying aluminum tolerance genes in popcorn (Zea mays L. var. everta). Sci. Rep.. 13:19400.     Reference: November 8th, 2023
Gene Product: November 4th, 2015
Gene Model: November 3rd, 2015
6 months agosweet14a sugars will eventually be exported transporter14a:
 
GRMZM2G094955
Fu, YX et al. 2023. Spatial transcriptomics uncover sucrose post-phloem transport during maize kernel development Nat Commun. 14:7191.     Reference: November 8th, 2023
Gene Product: November 4th, 2015
Gene Model: November 3rd, 2015
6 months agophos3 phosphate transporter3:
 
GRMZM5G815128
Fu, YX et al. 2023. Spatial transcriptomics uncover sucrose post-phloem transport during maize kernel development Nat Commun. 14:7191.   LOC_Os02g56510 (MSU/TIGR) Reference: November 8th, 2023
Gene Product: February 27th, 2016
Variation: September 13th, 2017
Gene Model: September 13th, 2017
6 months agogbss2 granule-bound starch synthase2:
 
   Sen, S et al. 2023. Maize Feature Store: A centralized resource to manage and analyze curated maize multi-omics features for machine learning applications. Database. 2023:doi: 10.1093/database/baad078.     Reference: November 8th, 2023
Gene Product: June 4th, 2008
6 months agopip2h plasma membrane intrinsic protein, PIP2h:
 
GRMZM2G432926
Pinto, VB et al. 2023. Transcriptome-based strategies for identifying aluminum tolerance genes in popcorn (Zea mays L. var. everta). Sci. Rep.. 13:19400.     Reference: November 8th, 2023
Gene Product: January 27th, 2022
Gene Model: November 6th, 2021
6 months agofad17 fatty acid desaturase17:
 
GRMZM2G169261
Pinto, VB et al. 2023. Transcriptome-based strategies for identifying aluminum tolerance genes in popcorn (Zea mays L. var. everta). Sci. Rep.. 13:19400.     Reference: November 8th, 2023
Gene Product: January 6th, 2022
Gene Model: January 6th, 2022
6 months agopip2i plasma membrane intrinsic protein, PIP2i:
 
GRMZM2G018649
Pinto, VB et al. 2023. Transcriptome-based strategies for identifying aluminum tolerance genes in popcorn (Zea mays L. var. everta). Sci. Rep.. 13:19400.     Reference: November 8th, 2023
Gene Product: January 27th, 2022
Gene Model: January 27th, 2022
6 months agotip3d tonoplast intrinsic protein3d:
 
GRMZM2G039845
Fu, YX et al. 2023. Spatial transcriptomics uncover sucrose post-phloem transport during maize kernel development Nat Commun. 14:7191.     Reference: November 8th, 2023
Gene Product: January 27th, 2022
Gene Model: January 27th, 2022
6 months agoppr408 pentatricopeptide repeat protein408:
7.04
GRMZM2G044023
Fu Qian et al. 2023. GWAS and Meta-QTL Analysis of Yield-Related Ear Traits in Maize Plants. 12:3806.     Reference: November 8th, 2023
Gene Product: December 27th, 2016
Gene Model: August 14th, 2021
6 months agosacd9 stearoyl-acyl-carrier-protein desaturase9:
8.06
GRMZM2G316362
Pinto, VB et al. 2023. Transcriptome-based strategies for identifying aluminum tolerance genes in popcorn (Zea mays L. var. everta). Sci. Rep.. 13:19400.     Reference: November 8th, 2023
Gene Product: October 10th, 2016
Gene Model: October 10th, 2016
6 months agogpm458  :
4.06
GRMZM2G044627
Fu, YX et al. 2023. Spatial transcriptomics uncover sucrose post-phloem transport during maize kernel development Nat Commun. 14:7191.     Reference: November 8th, 2023
Variation: September 25th, 2007
Gene Model: August 23rd, 2021
6 months agocry3 cryptochrome3:
9.03
GRMZM2G172152
Shizhan Chen et al. 2023. Cryptochrome 1b represses gibberellin signaling to enhance lodging resistance in maize Plant Physiol. :doi: 10.1093/plphys/kiad546.     Reference: November 6th, 2023
Gene Product: August 31st, 2018
Variation: September 25th, 2007
Gene Model: September 9th, 2021
6 months agocol2 C2C2-CO-like-transcription factor 2:
 
   Shizhan Chen et al. 2023. Cryptochrome 1b represses gibberellin signaling to enhance lodging resistance in maize Plant Physiol. :doi: 10.1093/plphys/kiad546.     Reference: November 6th, 2023
Gene Product: June 18th, 2018
6 months agohct9 hydroxycinnamoyltransferase9:
 
GRMZM2G131165
Wang, Y et al. 2023. Genome-wide association and transcriptome reveal genetic basis for Southern Corn Rust in maize J Integr Agric. :doi: 10.1016/j.jia.2023.10.039.     Reference: November 6th, 2023
Gene Product: November 7th, 2015
Gene Model: November 7th, 2015
6 months agobbx33 b-box33:
 
GRMZM2G085218
Shizhan Chen et al. 2023. Cryptochrome 1b represses gibberellin signaling to enhance lodging resistance in maize Plant Physiol. :doi: 10.1093/plphys/kiad546.     Reference: November 6th, 2023
Gene Product: January 11th, 2019
Gene Model: January 4th, 2017
6 months agodbb2 double B-box zinc finger protein2:
 
GRMZM2G131982
Shizhan Chen et al. 2023. Cryptochrome 1b represses gibberellin signaling to enhance lodging resistance in maize Plant Physiol. :doi: 10.1093/plphys/kiad546.     Reference: November 6th, 2023
Gene Product: May 10th, 2017
Variation: March 17th, 2021
Gene Model: May 10th, 2017
6 months agodbb3 double B-box zinc finger protein3:
 
GRMZM5G834596
Shizhan Chen et al. 2023. Cryptochrome 1b represses gibberellin signaling to enhance lodging resistance in maize Plant Physiol. :doi: 10.1093/plphys/kiad546.     Reference: November 6th, 2023
Gene Product: May 10th, 2017
Variation: May 10th, 2017
Gene Model: May 10th, 2017
6 months agodbb8 double B-box zinc finger protein8:
 
GRMZM2G070446
Shizhan Chen et al. 2023. Cryptochrome 1b represses gibberellin signaling to enhance lodging resistance in maize Plant Physiol. :doi: 10.1093/plphys/kiad546.     Reference: November 6th, 2023
Gene Product: May 10th, 2017
Variation: May 10th, 2017
Gene Model: May 10th, 2017
6 months agodbb11 double B-box zinc finger protein11:
 
GRMZM2G028594
Shizhan Chen et al. 2023. Cryptochrome 1b represses gibberellin signaling to enhance lodging resistance in maize Plant Physiol. :doi: 10.1093/plphys/kiad546.     Reference: November 6th, 2023
Gene Product: May 10th, 2017
Variation: May 10th, 2017
Gene Model: May 10th, 2017
6 months agodbb12 double B-box zinc finger protein12:
 
GRMZM2G098442
Shizhan Chen et al. 2023. Cryptochrome 1b represses gibberellin signaling to enhance lodging resistance in maize Plant Physiol. :doi: 10.1093/plphys/kiad546.     Reference: November 6th, 2023
Gene Product: May 10th, 2017
Gene Model: May 10th, 2017
6 months agobbx13 b-box13:
 
GRMZM2G438979
Shizhan Chen et al. 2023. Cryptochrome 1b represses gibberellin signaling to enhance lodging resistance in maize Plant Physiol. :doi: 10.1093/plphys/kiad546.     Reference: November 6th, 2023
Gene Product: January 11th, 2019
Gene Model: January 10th, 2019
6 months agobbx17 b-box17:
 
GRMZM2G146614
Shizhan Chen et al. 2023. Cryptochrome 1b represses gibberellin signaling to enhance lodging resistance in maize Plant Physiol. :doi: 10.1093/plphys/kiad546.     Reference: November 6th, 2023
Gene Product: January 11th, 2019
Gene Model: January 10th, 2019
6 months agobbx26 b-box26:
 
GRMZM2G415711
Shizhan Chen et al. 2023. Cryptochrome 1b represses gibberellin signaling to enhance lodging resistance in maize Plant Physiol. :doi: 10.1093/plphys/kiad546.     Reference: November 6th, 2023
Gene Product: January 11th, 2019
Gene Model: January 10th, 2019
6 months agoupl14 ubiquitin-protein ligase14:
 
GRMZM2G126795
Shizhan Chen et al. 2023. Cryptochrome 1b represses gibberellin signaling to enhance lodging resistance in maize Plant Physiol. :doi: 10.1093/plphys/kiad546.   AT2G32950 (TAIR) Reference: November 6th, 2023
Gene Product: March 26th, 2020
Gene Model: March 26th, 2020
6 months agobbx10 b-box10:
 
GRMZM2G081577
Shizhan Chen et al. 2023. Cryptochrome 1b represses gibberellin signaling to enhance lodging resistance in maize Plant Physiol. :doi: 10.1093/plphys/kiad546.     Reference: November 6th, 2023
Gene Product: January 11th, 2019
Gene Model: August 15th, 2022
6 months agodof4 C2C2-Dof-transcription factor 4:
3.08
GRMZM2G327189
Zhuoyun Wei et al. 2023. The Dof transcription factor COG1 acts as a key regulator of plant biomass by promoting photosynthesis and starch accumulation Molecular Plant. 16:1759-1772.     Reference: November 6th, 2023
Variation: March 31st, 2005
Gene Model: November 28th, 2014
6 months agocol15 C2C2-CO-like-transcription factor 1:
1.04
GRMZM2G134671
Shizhan Chen et al. 2023. Cryptochrome 1b represses gibberellin signaling to enhance lodging resistance in maize Plant Physiol. :doi: 10.1093/plphys/kiad546.     Reference: November 6th, 2023
Gene Product: June 18th, 2018
Gene Model: June 16th, 2018
6 months agoimp4 importin4:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: November 15th, 2022
6 months agoimp6 importin6:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: November 15th, 2022
6 months agoimp7 importin7:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: November 15th, 2022
6 months agoarm50 armadillo domain protein50:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoarm2 armadillo domain protein2:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoarm17 armadillo domain protein17:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoarm18 armadillo domain protein18:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoarm19 armadillo domain protein19:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoarm20 armadillo domain protein20:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoarm21 armadillo domain protein21:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoarm27 armadillo domain protein27:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoarm30 armadillo domain protein30:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoarm31 armadillo domain protein31:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoarm32 armadillo domain protein32:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoarm33 armadillo domain protein33:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoarm34 armadillo domain protein34:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoarm35 armadillo domain protein35:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoarm37 armadillo domain protein37:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoarm45 armadillo domain protein45:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoarm48 armadillo domain protein48:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoarm51 armadillo domain protein51:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoarm52 armadillo domain protein52:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoarm56 armadillo domain protein56:
 
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoimp3 importin3:
8.01
GRMZM2G088231
Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: November 15th, 2022
Gene Model: January 16th, 2021
6 months agoarm28 armadillo domain protein28:
3.05 - 3.05
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
Variation: September 1st, 2003
6 months agoimp1 importin1:
8.03
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: November 15th, 2022
Variation: July 7th, 2017
6 months agoarm36 armadillo domain protein36:
4.01
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoimp2 importin 2:
 
GRMZM2G009845
Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: November 15th, 2022
Gene Model: January 11th, 2020
6 months agoaro2 armadillo repeat only2:
 
GRMZM2G133282
Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.   AT4G34940 (TAIR) Reference: November 3rd, 2023
Gene Product: February 1st, 2021
Gene Model: February 1st, 2021
6 months agotraf27 TNF receptor-associated factor 27:
 
GRMZM2G098227
Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: June 30th, 2021
Gene Model: June 30th, 2021
6 months agotraf28 TNF receptor-associated factor 28:
 
GRMZM2G100946
Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: June 30th, 2021
Gene Model: June 30th, 2021
6 months agoarm55 armadillo domain protein55:
 
GRMZM2G079031
Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
Gene Model: February 8th, 2022
6 months agoarm44 armadillo domain protein44:
 
GRMZM2G094599
Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
Gene Model: July 19th, 2022
6 months agoarm49 armadillo domain protein49:
6.01
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agoarm29 armadillo domain protein29:
8.01
   Zhijia Yu et al. 2023. Exploring the roles of ZmARM gene family in maize development and abiotic stress response. PeerJ. 11:e16254.     Reference: November 3rd, 2023
Gene Product: February 1st, 2021
6 months agocsu456(uce)  :
3.08
GRMZM5G814314
Ma, YT et al. 2023. Genetic analysis of phenotypic plasticity identifies BBX6 as the candidate gene for maize adaptation to temperate regions Frontiers in Plant Science. 14:1280331.     Reference: November 2nd, 2023
Gene Product: December 19th, 2019
Gene Model: November 26th, 2019
6 months agoAY110217  :
9.04
GRMZM2G131785
Ma, B et al. 2023. Two ABCI family transporters, OsABCI15 and OsABCI16, are involved in grain-filling in rice. J Genet Genomics. :doi: 10.1016/j.jgg.2023.10.007.     Reference: November 2nd, 2023
Variation: September 25th, 2007
Gene Model: February 28th, 2018
6 months agobbx6 b-box6:
 
GRMZM2G422644
Ma, YT et al. 2023. Genetic analysis of phenotypic plasticity identifies BBX6 as the candidate gene for maize adaptation to temperate regions Frontiers in Plant Science. 14:1280331.     Reference: November 2nd, 2023
Gene Product: January 11th, 2019
Gene Model: January 10th, 2019
6 months agoumc1103  :
7.04
GRMZM2G414043
Ma, YT et al. 2023. Identification of Allele-Specific Expression Genes Associated with Maize Heterosis Agronomy. 13:2722.     Reference: November 1st, 2023
Variation: August 16th, 2017
Gene Model: August 16th, 2017
6 months agotcptf12 TCP-transcription factor 12:
 
   Ma, YT et al. 2023. Identification of Allele-Specific Expression Genes Associated with Maize Heterosis Agronomy. 13:2722.     Reference: November 1st, 2023
Gene Product: September 27th, 2019
6 months agocyc7 cyclin7:
3.06
GRMZM2G073003
Ma, YT et al. 2023. Identification of Allele-Specific Expression Genes Associated with Maize Heterosis Agronomy. 13:2722.     Reference: November 1st, 2023
Gene Product: June 26th, 2009
Variation: October 23rd, 2012
Gene Model: August 16th, 2019
6 months agortl1 reversion-to-ethylene sensitivity1 like1:
 
GRMZM5G832994
Yang, F et al. 2023. Comparative physiological and transcriptome analysis of leaf nitrogen fluxes in stay-green maize during the vegetative stage Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108147.     Reference: November 1st, 2023
Variation: June 10th, 2016
Gene Model: June 10th, 2016
6 months agompk17 MAP kinase17:
 
GRMZM2G374088
Ma, YT et al. 2023. Identification of Allele-Specific Expression Genes Associated with Maize Heterosis Agronomy. 13:2722.     Reference: November 1st, 2023
Gene Product: July 12th, 2013
Variation: March 18th, 2021
Gene Model: October 2nd, 2017
6 months agourb2 unhealthy ribosome biogenesis2:
 
GRMZM2G457178
Ma, YT et al. 2023. Identification of Allele-Specific Expression Genes Associated with Maize Heterosis Agronomy. 13:2722.     Reference: November 1st, 2023
Variation: February 26th, 2018
Gene Model: February 26th, 2018
6 months agoxlg2 extra-large guanine nucleotide-binding protein2:
 
GRMZM2G016858
Ma, YT et al. 2023. Identification of Allele-Specific Expression Genes Associated with Maize Heterosis Agronomy. 13:2722.     Reference: November 1st, 2023
Gene Product: May 1st, 2018
Variation: May 1st, 2018
Gene Model: May 1st, 2018
6 months agonye1 non-yellowing1:
 
GRMZM2G091837
Yang, F et al. 2023. Comparative physiological and transcriptome analysis of leaf nitrogen fluxes in stay-green maize during the vegetative stage Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.108147.     Reference: November 1st, 2023
Gene Product: August 26th, 2020
Gene Model: August 26th, 2020
6 months agoiqd19 IQ-domain 19:
 
GRMZM2G170766
Ma, YT et al. 2023. Identification of Allele-Specific Expression Genes Associated with Maize Heterosis Agronomy. 13:2722.     Reference: November 1st, 2023
Gene Product: May 23rd, 2021
Gene Model: May 23rd, 2021
6 months agothi2 thiamine biosynthesis2:
3.09
GRMZM2G074097
Sheng Ying et al. 2023. Multi-scale physiological responses to nitrogen supplementation of maize hybrids Plant Physiol. :doi: 10.1093/plphys/kiad583.     Reference: October 31st, 2023
Gene Product: February 1st, 2013
Variation: August 3rd, 2013
Gene Model: January 31st, 2013
6 months agocrr2 cytokinin response regulator2:
10.07
   Sheng Ying et al. 2023. Multi-scale physiological responses to nitrogen supplementation of maize hybrids Plant Physiol. :doi: 10.1093/plphys/kiad583.     Reference: October 31st, 2023
Gene Product: June 30th, 2017
Variation: October 1st, 2015
6 months agoelip1 early light inducible protein1:
 
GRMZM2G355752
Sheng Ying et al. 2023. Multi-scale physiological responses to nitrogen supplementation of maize hybrids Plant Physiol. :doi: 10.1093/plphys/kiad583.     Reference: October 31st, 2023
Gene Product: July 27th, 2013
Gene Model: July 27th, 2013
6 months agolic2 lichenase2:
 
GRMZM2G137535
Sheng Ying et al. 2023. Multi-scale physiological responses to nitrogen supplementation of maize hybrids Plant Physiol. :doi: 10.1093/plphys/kiad583.     Reference: October 31st, 2023
Gene Product: February 1st, 2021
Variation: February 1st, 2021
Gene Model: January 7th, 2020
6 months agoht1 Helminthosporium turcicum resistance1:
2.08
   Ludwig Navarro, B et al. 2023. Photosynthetic costs and impact on epidemiological parameters associated with Ht resistance genes in maize lines infected with Exserohilum turcicum. Phytopathology. :doi: 10.1094/PHYTO-07-23-0247-R.     Reference: October 28th, 2023
Gene Product: February 1st, 2023
Variation: September 1st, 2003
6 months agoht2 Helminthosporium turcicum resistance2:
8.05 - 8.06
   Ludwig Navarro, B et al. 2023. Photosynthetic costs and impact on epidemiological parameters associated with Ht resistance genes in maize lines infected with Exserohilum turcicum. Phytopathology. :doi: 10.1094/PHYTO-07-23-0247-R.     Reference: October 28th, 2023
Variation: September 1st, 2003
6 months agoht3 Helminthosporium turcicum resistance3:
 
   Ludwig Navarro, B et al. 2023. Photosynthetic costs and impact on epidemiological parameters associated with Ht resistance genes in maize lines infected with Exserohilum turcicum. Phytopathology. :doi: 10.1094/PHYTO-07-23-0247-R.     Reference: October 28th, 2023
Variation: September 1st, 2003
6 months agocchh150 Cys2His2 Zinc Finger150:
 
   Liu, C et al. 2023. Overexpression of ZmSTOP1-A Enhances Aluminum Tolerance in Arabidopsis by Stimulating Organic Acid Secretion and Reactive Oxygen Species Scavenging Int J Mol Sci. 24:15669.     Reference: October 27th, 2023
Gene Product: November 14th, 2022
6 months agocchh35 Cys2His2 Zinc Finger35:
10.02
GRMZM2G068710
Liu, C et al. 2023. Overexpression of ZmSTOP1-A Enhances Aluminum Tolerance in Arabidopsis by Stimulating Organic Acid Secretion and Reactive Oxygen Species Scavenging Int J Mol Sci. 24:15669.     Reference: October 27th, 2023
Gene Product: November 14th, 2022
Gene Model: January 23rd, 2018
6 months agocchh5 Cys2His2 Zinc Finger5:
 
   Liu, C et al. 2023. Overexpression of ZmSTOP1-A Enhances Aluminum Tolerance in Arabidopsis by Stimulating Organic Acid Secretion and Reactive Oxygen Species Scavenging Int J Mol Sci. 24:15669.     Reference: October 27th, 2023
Gene Product: November 14th, 2022
6 months agocchh3 Cys2His2 Zinc Finger3:
5.05
GRMZM2G023988
Liu, C et al. 2023. Overexpression of ZmSTOP1-A Enhances Aluminum Tolerance in Arabidopsis by Stimulating Organic Acid Secretion and Reactive Oxygen Species Scavenging Int J Mol Sci. 24:15669.     Reference: October 27th, 2023
Gene Product: November 14th, 2022
Gene Model: January 23rd, 2018
6 months agol15 luteus15:
6.02 - 6.03
GRMZM2G177169
Lukas Dorian Dittiger et al. 2023. Plant Responses of Maize to Two formae speciales of Sporisorium reilianum Support Recent Fungal Host Jump Int J Mol Sci. 24:15604.   AT2G18940 (TAIR)
LOC_Os05g19380 (MSU/TIGR)
Os05g0275000 (Gramene)
Reference: October 26th, 2023
Gene Product: December 30th, 2015
Variation: November 7th, 2012
Gene Model: November 6th, 2012
6 months agoumc1246  :
10.04
GRMZM2G075315
Lukas Dorian Dittiger et al. 2023. Plant Responses of Maize to Two formae speciales of Sporisorium reilianum Support Recent Fungal Host Jump Int J Mol Sci. 24:15604.     Reference: October 26th, 2023
Variation: September 1st, 2003
Gene Model: December 9th, 2017
6 months agosalt1 SalT homolog1:
10.02
GRMZM2G142891
Lukas Dorian Dittiger et al. 2023. Plant Responses of Maize to Two formae speciales of Sporisorium reilianum Support Recent Fungal Host Jump Int J Mol Sci. 24:15604.     Reference: October 26th, 2023
Gene Product: September 1st, 2003
Variation: January 9th, 2018
Gene Model: December 12th, 2017
6 months agoprp1 pathogenesis-related protein1:
8.03
   Lukas Dorian Dittiger et al. 2023. Plant Responses of Maize to Two formae speciales of Sporisorium reilianum Support Recent Fungal Host Jump Int J Mol Sci. 24:15604.     Reference: October 26th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
6 months agoga3ox1 gibberellin 3-oxidase1:
 
GRMZM2G044358
Allen, EM et al. 2020. Methods and compositions for short stature plants through manipulation of gibberellin metabolism to increase harvestable yield; Patent No. US 10,724,047 B     Reference: October 26th, 2023
Gene Product: October 25th, 2014
Variation: October 25th, 2014
Gene Model: October 25th, 2014
6 months agoga20ox2 gibberellin 20-oxidase2:
 
GRMZM2G021051
Allen, EM et al. 2020. Methods and compositions for short stature plants through manipulation of gibberellin metabolism to increase harvestable yield; Patent No. US 10,724,047 B     Reference: October 26th, 2023
Gene Product: October 28th, 2014
Gene Model: October 27th, 2014
6 months agoga20ox7 gibberellin 20-oxidase7:
 
AC234528.1_FG006
Allen, EM et al. 2020. Methods and compositions for short stature plants through manipulation of gibberellin metabolism to increase harvestable yield; Patent No. US 10,724,047 B     Reference: October 26th, 2023
Gene Product: October 28th, 2014
Gene Model: May 8th, 2021
6 months agoga20ox9 gibberellin 20-oxidase9:
 
GRMZM2G127668
Allen, EM et al. 2020. Methods and compositions for short stature plants through manipulation of gibberellin metabolism to increase harvestable yield; Patent No. US 10,724,047 B     Reference: October 26th, 2023
Gene Product: October 28th, 2014
Gene Model: May 8th, 2021
6 months agoglk1 G2-like1:
9.00
GRMZM2G026833
Julia Lambret-Frotte et al. 2023. GOLDEN2-like is sufficient but not necessary for chloroplast biogenesis in mesophyll cells of C4 grasses. Plant J. :doi: 10.1111/tpj.16498.     Reference: October 26th, 2023
Gene Product: July 11th, 2019
Variation: May 9th, 2009
Gene Model: September 27th, 2012
6 months agonhl1 NDR1/HIN1-like 1:
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.   AT3G11660 (TAIR) Reference: October 25th, 2023
Gene Product: January 31st, 2019
6 months agohin13 hairpin-induced13:
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: February 1st, 2021
6 months agocel19 cellulase19:
 
   Angelo Raffaele Marcotrigiano et al. 2023. Hydroxamic acids: New players in the multifactorial mechanisms of maize resistance to Striga hermonthica Plant Physiol Biochem. 204:108134.     Reference: October 25th, 2023
Gene Product: March 20th, 2023
6 months agohin12 hairpin-induced12:
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: February 1st, 2021
6 months agohin15 hairpin-induced15:
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: February 1st, 2021
6 months agohin16 hairpin-induced16:
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: February 1st, 2021
6 months agohin17 hairpin-induced17:
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: February 1st, 2021
6 months agohin11 hairpin-induced11:
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: February 1st, 2021
6 months agohin14 hairpin-induced14:
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: February 1st, 2021
6 months agohin18 hairpin-induced18:
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: February 1st, 2021
6 months agohin20 hairpin-induced20:
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: February 1st, 2021
6 months agohin22 hairpin-induced22:
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: February 1st, 2021
6 months agohin24 hairpin-induced24:
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: February 1st, 2021
6 months agoppr9 pentatricopeptide repeat protein9:
 
   Sanchez, DL et al. 2023. Phenotypic and genome-wide association analyses for nitrogen use efficiency related traits in maize (Zea mays L.) exotic introgression lines. Frontiers in Plant Science. 14:1270166.     Reference: October 25th, 2023
Gene Product: December 27th, 2016
6 months agoZm00001eb022900  :
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: January 31st, 2019
6 months agoZm00001eb047600  :
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: January 31st, 2019
6 months agoZm00001eb071160  :
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: January 31st, 2019
6 months agoZm00001eb083540  :
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: January 31st, 2019
6 months agoZm00001eb159430  :
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: January 31st, 2019
6 months agoZm00001eb160190  :
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: January 31st, 2019
6 months agoZm00001eb211120  :
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: January 31st, 2019
6 months agoZm00001eb247790  :
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: January 31st, 2019
6 months agoZm00001eb259940  :
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: January 31st, 2019
6 months agoZm00001eb308610  :
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: January 31st, 2019
6 months agoZm00001eb358640  :
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: January 31st, 2019
6 months agoZm00001eb405330  :
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: January 31st, 2019
6 months agoZm00001eb422110  :
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: January 31st, 2019
6 months agopza00818  :
5.00
GRMZM2G146158
Angelo Raffaele Marcotrigiano et al. 2023. Hydroxamic acids: New players in the multifactorial mechanisms of maize resistance to Striga hermonthica Plant Physiol Biochem. 204:108134.     Reference: October 25th, 2023
Variation: September 25th, 2007
Gene Model: May 1st, 2020
6 months agoaco5 aconitase5:
2.07
   Sanchez, DL et al. 2023. Phenotypic and genome-wide association analyses for nitrogen use efficiency related traits in maize (Zea mays L.) exotic introgression lines. Frontiers in Plant Science. 14:1270166.     Reference: October 25th, 2023
Gene Product: September 1st, 2003
Variation: April 5th, 2019
6 months agoesp1 embryo specific protein1:
6.05
AC233879.1_FG002
Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: January 31st, 2019
Variation: September 1st, 2003
Gene Model: July 27th, 2016
6 months agorab30 responsive to abscisic acid30:
1.01
GRMZM2G472236
Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: September 1st, 2003
Variation: May 2nd, 2011
Gene Model: June 1st, 2017
6 months agoccp3 cysteine protease3:
10.07
GRMZM2G073465
Angelo Raffaele Marcotrigiano et al. 2023. Hydroxamic acids: New players in the multifactorial mechanisms of maize resistance to Striga hermonthica Plant Physiol Biochem. 204:108134.     Reference: October 25th, 2023
Gene Product: October 11th, 2021
Variation: September 1st, 2003
Gene Model: January 16th, 2018
6 months agobnlg1452  :
3.04
GRMZM2G410916
Angelo Raffaele Marcotrigiano et al. 2023. Hydroxamic acids: New players in the multifactorial mechanisms of maize resistance to Striga hermonthica Plant Physiol Biochem. 204:108134.     Reference: October 25th, 2023
Variation: September 1st, 2003
Gene Model: March 21st, 2018
6 months agoumc1128  :
1.07
GRMZM2G031893
Jiang Shi et al. 2023. Physiological, Metabolic, and Transcriptomic Analyses Reveal the Effect of Sweet Corn Plants Treated with a New Biostimulant on the Growth Enhancement, Focusing on Enhancing Gibberellin Synthesis and Signal Transduction ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00177.     Reference: October 25th, 2023
Variation: September 1st, 2003
Gene Model: June 9th, 2017
6 months agoumc1248  :
6.08
GRMZM2G021794
Angelo Raffaele Marcotrigiano et al. 2023. Hydroxamic acids: New players in the multifactorial mechanisms of maize resistance to Striga hermonthica Plant Physiol Biochem. 204:108134.     Reference: October 25th, 2023
Variation: September 1st, 2003
Gene Model: March 14th, 2021
6 months agoesp5 embryo specific protein5:
6.05
GRMZM2G162659
Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Variation: September 1st, 2003
Gene Model: July 27th, 2016
6 months agogras53 GRAS-transcription factor 53:
 
   Jiang Shi et al. 2023. Physiological, Metabolic, and Transcriptomic Analyses Reveal the Effect of Sweet Corn Plants Treated with a New Biostimulant on the Growth Enhancement, Focusing on Enhancing Gibberellin Synthesis and Signal Transduction ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00177.     Reference: October 25th, 2023
Variation: August 16th, 2016
6 months agohsftf2 HSF-transcription factor 2:
 
   Sanchez, DL et al. 2023. Phenotypic and genome-wide association analyses for nitrogen use efficiency related traits in maize (Zea mays L.) exotic introgression lines. Frontiers in Plant Science. 14:1270166.     Reference: October 25th, 2023
Gene Product: May 15th, 2020
6 months agonup58 nucleoporin58:
2.07
GRMZM2G134508
Sanchez, DL et al. 2023. Phenotypic and genome-wide association analyses for nitrogen use efficiency related traits in maize (Zea mays L.) exotic introgression lines. Frontiers in Plant Science. 14:1270166.     Reference: October 25th, 2023
Gene Product: June 1st, 2022
Variation: June 1st, 2022
Gene Model: March 2nd, 2021
6 months agocyp25 cytochrome P-450 25:
4.09
GRMZM2G070508
Angelo Raffaele Marcotrigiano et al. 2023. Hydroxamic acids: New players in the multifactorial mechanisms of maize resistance to Striga hermonthica Plant Physiol Biochem. 204:108134.     Reference: October 25th, 2023
Gene Product: December 30th, 2022
Gene Model: June 8th, 2018
6 months agogst21 glutathione transferase21:
3.05
GRMZM2G428168
Jiang Shi et al. 2023. Physiological, Metabolic, and Transcriptomic Analyses Reveal the Effect of Sweet Corn Plants Treated with a New Biostimulant on the Growth Enhancement, Focusing on Enhancing Gibberellin Synthesis and Signal Transduction ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00177.     Reference: October 25th, 2023
Gene Product: September 1st, 2003
Variation: August 18th, 2010
Gene Model: April 18th, 2017
6 months agogst30 glutathione transferase30:
1.04
GRMZM2G044383
Jiang Shi et al. 2023. Physiological, Metabolic, and Transcriptomic Analyses Reveal the Effect of Sweet Corn Plants Treated with a New Biostimulant on the Growth Enhancement, Focusing on Enhancing Gibberellin Synthesis and Signal Transduction ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00177.     Reference: October 25th, 2023
Gene Product: September 1st, 2003
Variation: August 21st, 2010
Gene Model: July 27th, 2016
6 months agogst34 glutathione transferase34:
 
GRMZM2G145069
Jiang Shi et al. 2023. Physiological, Metabolic, and Transcriptomic Analyses Reveal the Effect of Sweet Corn Plants Treated with a New Biostimulant on the Growth Enhancement, Focusing on Enhancing Gibberellin Synthesis and Signal Transduction ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00177.     Reference: October 25th, 2023
Gene Product: September 1st, 2003
Gene Model: April 18th, 2017
6 months agoobf3 octopine synthase binding factor3:
 
GRMZM2G019907
Jiang Shi et al. 2023. Physiological, Metabolic, and Transcriptomic Analyses Reveal the Effect of Sweet Corn Plants Treated with a New Biostimulant on the Growth Enhancement, Focusing on Enhancing Gibberellin Synthesis and Signal Transduction ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00177.     Reference: October 25th, 2023
Gene Product: September 1st, 2003
Variation: October 29th, 2010
Gene Model: April 11th, 2013
6 months agocyp33 cytochrome P450 CYP81A39:
1.10
GRMZM2G154828
Jiang Shi et al. 2023. Physiological, Metabolic, and Transcriptomic Analyses Reveal the Effect of Sweet Corn Plants Treated with a New Biostimulant on the Growth Enhancement, Focusing on Enhancing Gibberellin Synthesis and Signal Transduction ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00177.     Reference: October 25th, 2023
Gene Product: December 30th, 2022
Gene Model: February 15th, 2020
6 months agoumc2230  :
1.05
GRMZM2G070271
Sanchez, DL et al. 2023. Phenotypic and genome-wide association analyses for nitrogen use efficiency related traits in maize (Zea mays L.) exotic introgression lines. Frontiers in Plant Science. 14:1270166.     Reference: October 25th, 2023
Variation: January 10th, 2017
Gene Model: June 15th, 2017
6 months agodhn3 dehydrin3:
4.06
GRMZM2G373522
Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: August 5th, 2017
Variation: June 18th, 2011
Gene Model: October 16th, 2016
6 months agochn3 chitinase3:
5.03
   Jiang Shi et al. 2023. Physiological, Metabolic, and Transcriptomic Analyses Reveal the Effect of Sweet Corn Plants Treated with a New Biostimulant on the Growth Enhancement, Focusing on Enhancing Gibberellin Synthesis and Signal Transduction ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00177.     Reference: October 25th, 2023
Gene Product: May 31st, 2021
Variation: September 1st, 2003
6 months agoAY109703  :
7.06
GRMZM2G386824
Angelo Raffaele Marcotrigiano et al. 2023. Hydroxamic acids: New players in the multifactorial mechanisms of maize resistance to Striga hermonthica Plant Physiol Biochem. 204:108134.     Reference: October 25th, 2023
Variation: September 25th, 2007
Gene Model: September 13th, 2018
6 months agospx12 SPX domain-containing membrane protein12:
1.09
AC177897.2_FG002
Angelo Raffaele Marcotrigiano et al. 2023. Hydroxamic acids: New players in the multifactorial mechanisms of maize resistance to Striga hermonthica Plant Physiol Biochem. 204:108134.     Reference: October 25th, 2023
Gene Product: October 9th, 2021
Gene Model: February 15th, 2020
6 months agomate21 multidrug and toxic compound extrusion21:
2.07
GRMZM2G470075
Sanchez, DL et al. 2023. Phenotypic and genome-wide association analyses for nitrogen use efficiency related traits in maize (Zea mays L.) exotic introgression lines. Frontiers in Plant Science. 14:1270166.     Reference: October 25th, 2023
Gene Product: August 17th, 2015
Gene Model: March 21st, 2020
6 months agosnrkII4 SnRK2 serine threonine protein kinase 4:
3.06
GRMZM2G110922
Sanchez, DL et al. 2023. Phenotypic and genome-wide association analyses for nitrogen use efficiency related traits in maize (Zea mays L.) exotic introgression lines. Frontiers in Plant Science. 14:1270166.     Reference: October 25th, 2023
Gene Product: April 14th, 2018
Gene Model: February 11th, 2015
6 months agomlo9 barley mlo defense gene homolog9:
2.01
GRMZM2G051974
Jiang Shi et al. 2023. Physiological, Metabolic, and Transcriptomic Analyses Reveal the Effect of Sweet Corn Plants Treated with a New Biostimulant on the Growth Enhancement, Focusing on Enhancing Gibberellin Synthesis and Signal Transduction ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00177.     Reference: October 25th, 2023
Variation: September 4th, 2014
Gene Model: September 4th, 2014
6 months agopdi12 protein disulfide isomerase12:
2.07
GRMZM2G067063
Sanchez, DL et al. 2023. Phenotypic and genome-wide association analyses for nitrogen use efficiency related traits in maize (Zea mays L.) exotic introgression lines. Frontiers in Plant Science. 14:1270166.     Reference: October 25th, 2023
Gene Product: September 1st, 2003
Variation: December 29th, 2015
Gene Model: December 18th, 2015
6 months agopal8 phenylalanine ammonia lyase8:
 
GRMZM2G334660
Angelo Raffaele Marcotrigiano et al. 2023. Hydroxamic acids: New players in the multifactorial mechanisms of maize resistance to Striga hermonthica Plant Physiol Biochem. 204:108134.     Reference: October 25th, 2023
Gene Product: August 13th, 2022
Gene Model: May 17th, 2016
6 months agocyp24 cytochrome P-450 24:
 
GRMZM2G023952
Angelo Raffaele Marcotrigiano et al. 2023. Hydroxamic acids: New players in the multifactorial mechanisms of maize resistance to Striga hermonthica Plant Physiol Biochem. 204:108134.     Reference: October 25th, 2023
Gene Product: December 30th, 2022
Gene Model: February 27th, 2018
6 months agovq6 VQ motif-transcription factor6:
 
GRMZM2G158976
Sanchez, DL et al. 2023. Phenotypic and genome-wide association analyses for nitrogen use efficiency related traits in maize (Zea mays L.) exotic introgression lines. Frontiers in Plant Science. 14:1270166.     Reference: October 25th, 2023
Gene Product: August 31st, 2019
Gene Model: August 31st, 2019
6 months agoxt2 beta-1,4-xylosyltransferase2:
 
GRMZM2G448834
Angelo Raffaele Marcotrigiano et al. 2023. Hydroxamic acids: New players in the multifactorial mechanisms of maize resistance to Striga hermonthica Plant Physiol Biochem. 204:108134.     Reference: October 25th, 2023
Gene Product: August 12th, 2022
Gene Model: July 2nd, 2020
6 months agoxt6 beta-1,4-xylosyltransferase6:
 
GRMZM2G000581
Angelo Raffaele Marcotrigiano et al. 2023. Hydroxamic acids: New players in the multifactorial mechanisms of maize resistance to Striga hermonthica Plant Physiol Biochem. 204:108134.     Reference: October 25th, 2023
Gene Product: August 12th, 2022
Gene Model: July 2nd, 2020
6 months agoskus17 skewed root growth similar17:
 
GRMZM2G163535
Angelo Raffaele Marcotrigiano et al. 2023. Hydroxamic acids: New players in the multifactorial mechanisms of maize resistance to Striga hermonthica Plant Physiol Biochem. 204:108134.     Reference: October 25th, 2023
Gene Product: October 9th, 2020
Gene Model: October 9th, 2020
6 months agoskus18 skewed root growth similar18:
 
GRMZM2G141376
Angelo Raffaele Marcotrigiano et al. 2023. Hydroxamic acids: New players in the multifactorial mechanisms of maize resistance to Striga hermonthica Plant Physiol Biochem. 204:108134.     Reference: October 25th, 2023
Gene Product: October 9th, 2020
Gene Model: October 9th, 2020
6 months agopoll1 pollux-like1:
 
GRMZM2G110897
Sanchez, DL et al. 2023. Phenotypic and genome-wide association analyses for nitrogen use efficiency related traits in maize (Zea mays L.) exotic introgression lines. Frontiers in Plant Science. 14:1270166.     Reference: October 25th, 2023
Gene Product: November 20th, 2020
Gene Model: November 20th, 2020
6 months agoA0A1D6JQ00  :
 
GRMZM2G063287
Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: January 31st, 2019
Gene Model: June 22nd, 2021
6 months agoccp28 cysteine protease28:
 
GRMZM2G367701
Angelo Raffaele Marcotrigiano et al. 2023. Hydroxamic acids: New players in the multifactorial mechanisms of maize resistance to Striga hermonthica Plant Physiol Biochem. 204:108134.     Reference: October 25th, 2023
Gene Product: October 11th, 2021
Gene Model: October 11th, 2021
6 months agodhn18 dehydrin18:
 
   Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: August 5th, 2017
6 months agolea2 late embryogenesis abundant protein2:
 
GRMZM2G704475
Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: January 31st, 2019
Gene Model: January 3rd, 2022
6 months agolea7 late embryogenesis abundant protein7:
 
GRMZM2G412436
Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: January 31st, 2019
Gene Model: January 3rd, 2022
6 months agocel25 cellulase25:
 
GRMZM2G151257
Angelo Raffaele Marcotrigiano et al. 2023. Hydroxamic acids: New players in the multifactorial mechanisms of maize resistance to Striga hermonthica Plant Physiol Biochem. 204:108134.     Reference: October 25th, 2023
Gene Product: March 20th, 2023
Gene Model: February 15th, 2022
6 months agohin7 hairpin-induced7:
 
GRMZM2G042488
Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Gene Product: February 1st, 2021
Gene Model: March 26th, 2022
6 months agoIDP3824  :
2.07
GRMZM2G114322
Angelo Raffaele Marcotrigiano et al. 2023. Hydroxamic acids: New players in the multifactorial mechanisms of maize resistance to Striga hermonthica Plant Physiol Biochem. 204:108134.     Reference: October 25th, 2023
Variation: March 31st, 2005
Gene Model: May 3rd, 2021
6 months agoIDP3971  :
7.02
GRMZM2G053637
Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Variation: March 31st, 2005
Gene Model: July 6th, 2021
6 months agoIDP387  :
8.08
AC204359.3_FG005
Angelo Raffaele Marcotrigiano et al. 2023. Hydroxamic acids: New players in the multifactorial mechanisms of maize resistance to Striga hermonthica Plant Physiol Biochem. 204:108134.     Reference: October 25th, 2023
Variation: March 31st, 2005
Gene Model: September 3rd, 2019
6 months agoIDP708  :
9.04
GRMZM2G152417
Jiang Shi et al. 2023. Physiological, Metabolic, and Transcriptomic Analyses Reveal the Effect of Sweet Corn Plants Treated with a New Biostimulant on the Growth Enhancement, Focusing on Enhancing Gibberellin Synthesis and Signal Transduction ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00177.     Reference: October 25th, 2023
Variation: March 31st, 2005
Gene Model: January 22nd, 2019
6 months agomagi2594  :
1.11
GRMZM2G352415
Zhang, Yaping et al. 2023. Identification of the Maize LEA Gene Family and Its Relationship with Kernel Dehydration Plants. 12:3674.     Reference: October 25th, 2023
Variation: April 24th, 2006
Gene Model: February 16th, 2020
6 months agoumi12 ustilago maydis induced12:
1.10
GRMZM2G149923
Jiang Shi et al. 2023. Physiological, Metabolic, and Transcriptomic Analyses Reveal the Effect of Sweet Corn Plants Treated with a New Biostimulant on the Growth Enhancement, Focusing on Enhancing Gibberellin Synthesis and Signal Transduction ACS Agric Sci Technol. :doi: 10.1021/acsagscitech.3c00177.     Reference: October 25th, 2023
Gene Product: January 12th, 2015
Variation: April 17th, 2008
Gene Model: January 12th, 2015
6 months agocah7 carbonic anhydrase7:
 
   Qiqi Zhang et al. 2023. Regulatory NADH dehydrogenase-like complex optimizes C4 photosynthetic carbon flow and cellular redox in maize. New Phytol. :doi: 10.1111/nph.19332.     Reference: October 24th, 2023
Gene Product: February 26th, 2019
6 months agorbcL2 ribulose-1-5-bisphosphate carboxylase-large subunit2:
 
   Qiqi Zhang et al. 2023. Regulatory NADH dehydrogenase-like complex optimizes C4 photosynthetic carbon flow and cellular redox in maize. New Phytol. :doi: 10.1111/nph.19332.     Reference: October 24th, 2023
Gene Product: September 1st, 2003
6 months agozmm1 Zea mays MADS1:
10.03
GRMZM2G010669
Lipps, S et al. 2023. Inhibition of ethylene involved in resistance to E. turcicum in an exotic-derived double haploid maize population. Frontiers in Plant Science. 14:1272951.     Reference: October 24th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: July 3rd, 2012
6 months agondhn1 NADH dehydrogenase I subunit N1:
3.06
GRMZM2G110277
Qiqi Zhang et al. 2023. Regulatory NADH dehydrogenase-like complex optimizes C4 photosynthetic carbon flow and cellular redox in maize. New Phytol. :doi: 10.1111/nph.19332.     Reference: October 24th, 2023
Gene Product: March 22nd, 2022
Variation: September 3rd, 2021
Gene Model: April 5th, 2020
6 months agoremo1 remorin1:
 
GRMZM2G107774
Lipps, S et al. 2023. Inhibition of ethylene involved in resistance to E. turcicum in an exotic-derived double haploid maize population. Frontiers in Plant Science. 14:1272951.     Reference: October 24th, 2023
Gene Product: September 24th, 2018
Variation: February 6th, 2016
Gene Model: February 6th, 2016
6 months agogpat20 glycerol-3-phosphate acyltransferase20:
 
GRMZM2G075295
Lipps, S et al. 2023. Inhibition of ethylene involved in resistance to E. turcicum in an exotic-derived double haploid maize population. Frontiers in Plant Science. 14:1272951.     Reference: October 24th, 2023
Gene Product: March 25th, 2019
Gene Model: April 25th, 2019
6 months agondho1 NADH-plastoquinone oxidoreductase1:
8.06
GRMZM2G133844
Qiqi Zhang et al. 2023. Regulatory NADH dehydrogenase-like complex optimizes C4 photosynthetic carbon flow and cellular redox in maize. New Phytol. :doi: 10.1111/nph.19332.     Reference: October 24th, 2023
Gene Product: September 1st, 2003
Variation: September 6th, 2021
Gene Model: September 5th, 2021
6 months agogtr3 glutamyl-tRNA reductase3:
 
   Yang, WZ et al. 2023. ZmGluTR1 is involved in chlorophyll biosynthesis and is essential for maize development. J Plant Physiol. 290:doi: 10.1016/j.jplph.2023.154115.     Reference: October 23rd, 2023
Gene Product: October 23rd, 2023
6 months agozmm6 Zea mays MADS6:
1.06
   Mirzakhmedov Mukhammadjon et al. 2023. Target genes utilized for drought tolerance enhancement in maize Plant Science Today. :doi: 10.14719/pst.2561.     Reference: October 23rd, 2023
Gene Product: September 10th, 2021
Variation: August 8th, 2008
6 months agohscf1 heat shock complementing factor1:
9.03
GRMZM2G139082
Zuo, WL et al. 2023. A transcriptional activator effector of Ustilago maydis regulates hyperplasia in maize during pathogen-induced tumor formation Nat Commun. 14:6722.     Reference: October 23rd, 2023
Variation: December 22nd, 2012
Gene Model: July 28th, 2016
6 months agorafs1 raffinose synthase1:
3.03
GRMZM2G150906
Mirzakhmedov Mukhammadjon et al. 2023. Target genes utilized for drought tolerance enhancement in maize Plant Science Today. :doi: 10.14719/pst.2561.     Reference: October 23rd, 2023
Gene Product: October 25th, 2019
Variation: March 23rd, 2018
Gene Model: March 23rd, 2018
6 months agoAY110625  :
5.00
GRMZM2G305216
Zuo, WL et al. 2023. A transcriptional activator effector of Ustilago maydis regulates hyperplasia in maize during pathogen-induced tumor formation Nat Commun. 14:6722.     Reference: October 23rd, 2023
Variation: September 25th, 2007
Gene Model: June 13th, 2018
6 months agomkkk16 MAP kinase kinase kinase16:
2.06
GRMZM2G098828
Mirzakhmedov Mukhammadjon et al. 2023. Target genes utilized for drought tolerance enhancement in maize Plant Science Today. :doi: 10.14719/pst.2561.     Reference: October 23rd, 2023
Gene Product: March 14th, 2022
Gene Model: July 11th, 2013
6 months agoyab9 yabby9:
5.03
   Zuo, WL et al. 2023. A transcriptional activator effector of Ustilago maydis regulates hyperplasia in maize during pathogen-induced tumor formation Nat Commun. 14:6722.     Reference: October 23rd, 2023
Gene Product: October 16th, 2015
Variation: March 23rd, 2009
6 months agoplc1 phospholipase C1:
 
GRMZM5G889467
Mirzakhmedov Mukhammadjon et al. 2023. Target genes utilized for drought tolerance enhancement in maize Plant Science Today. :doi: 10.14719/pst.2561.     Reference: October 23rd, 2023
Gene Product: January 12th, 2021
Gene Model: December 6th, 2016
6 months agoslac1 slow anion channel-associated1:
 
GRMZM2G106881
Mirzakhmedov Mukhammadjon et al. 2023. Target genes utilized for drought tolerance enhancement in maize Plant Science Today. :doi: 10.14719/pst.2561.     Reference: October 23rd, 2023
Gene Product: February 1st, 2018
Variation: September 9th, 2021
Gene Model: February 1st, 2018
6 months agotipd1 tip growth defective1:
 
GRMZM2G087806
Mirzakhmedov Mukhammadjon et al. 2023. Target genes utilized for drought tolerance enhancement in maize Plant Science Today. :doi: 10.14719/pst.2561.   AT5G20350 (TAIR) Reference: October 23rd, 2023
Gene Product: February 26th, 2022
Variation: November 8th, 2019
Gene Model: November 8th, 2019
6 months agopis1 phosphatidylinositol synthase1:
 
GRMZM2G110646
Mirzakhmedov Mukhammadjon et al. 2023. Target genes utilized for drought tolerance enhancement in maize Plant Science Today. :doi: 10.14719/pst.2561.     Reference: October 23rd, 2023
Gene Product: September 18th, 2020
Gene Model: September 18th, 2020
6 months agoyab15 yabby15:
5.05
   Zuo, WL et al. 2023. A transcriptional activator effector of Ustilago maydis regulates hyperplasia in maize during pathogen-induced tumor formation Nat Commun. 14:6722.     Reference: October 23rd, 2023
Gene Product: October 16th, 2015
Variation: December 30th, 2014
6 months agomocos1 molybdenum cofactor sulfurase1:
 
GRMZM2G048092
Mirzakhmedov Mukhammadjon et al. 2023. Target genes utilized for drought tolerance enhancement in maize Plant Science Today. :doi: 10.14719/pst.2561.   AT1G16540 (TAIR) Reference: October 23rd, 2023
Gene Product: January 23rd, 2021
Gene Model: January 23rd, 2021
6 months agoZm00001d010720  :
 
   Ran Tian et al. 2023. Identification of Morphogenesis-Related NDR Kinase Signaling Network and Its Regulation on Cold Tolerance in Maize Plants. 12:3639.     Reference: October 21st, 2023
Variation: October 21st, 2023
6 months agowrky67 WRKY-transcription factor 67:
 
   Mei Zhou et al. 2023. Important Factors Controlling Gibberellin Homeostasis in Plant Height Regulation J Agric Food Chem. :doi: 10.1021/acs.jafc.3c03560.     Reference: October 21st, 2023
Gene Product: July 24th, 2017
6 months agocl11011_1  :
1.10
   Ran Tian et al. 2023. Identification of Morphogenesis-Related NDR Kinase Signaling Network and Its Regulation on Cold Tolerance in Maize Plants. 12:3639.     Reference: October 21st, 2023
Variation: September 25th, 2007
6 months agoIDP511  :
1.04
GRMZM5G862467
Ran Tian et al. 2023. Identification of Morphogenesis-Related NDR Kinase Signaling Network and Its Regulation on Cold Tolerance in Maize Plants. 12:3639.     Reference: October 21st, 2023
Variation: March 31st, 2005
Gene Model: February 13th, 2019
6 months agotua5 alpha tubulin5:
2.08
   Zhao, YP et al. 2022. The evening complex promotes maize flowering and adaptation to temperate regions Plant Cell. :doi: 10.1093/plcell/koac296.     Reference: October 20th, 2023
Gene Product: September 1st, 2003
Variation: August 16th, 2013
6 months agoalt4 L-alanine:2-oxoglutarate aminotransferase4:
5.03
GRMZM2G088064
Claeys, H et al. 2023. Coordinated gene upregulation in maize through CRISPR/Cas-mediated enhancer insertion. Plant Biotechnol J. :doi: 10.1111/pbi.14191.     Reference: October 20th, 2023
Gene Product: October 2nd, 2020
Variation: February 26th, 2010
Gene Model: July 23rd, 2014
6 months agoaic3 auxin import carrier3:
1.03
GRMZM2G149481
Zheng, ZG et al. 2023. Local Auxin Biosynthesis Regulates Brace Root Angle and Lodging Resistance in Maize. New Phytol. :doi: 10.1111/nph.18733.     Reference: October 20th, 2023
Gene Product: April 19th, 2017
Gene Model: April 19th, 2017
6 months agoyuc3 Yucca3:
 
GRMZM2G107761
Zheng, ZG et al. 2023. Local Auxin Biosynthesis Regulates Brace Root Angle and Lodging Resistance in Maize. New Phytol. :doi: 10.1111/nph.18733.     Reference: October 20th, 2023
Gene Product: June 18th, 2018
Gene Model: September 12th, 2012
6 months agoyuc7 yucca7:
 
GRMZM2G480386
Zheng, ZG et al. 2023. Local Auxin Biosynthesis Regulates Brace Root Angle and Lodging Resistance in Maize. New Phytol. :doi: 10.1111/nph.18733.     Reference: October 20th, 2023
Gene Product: June 18th, 2018
Gene Model: August 19th, 2017
6 months agoyuc8 yucca8:
 
GRMZM2G017193
Zheng, ZG et al. 2023. Local Auxin Biosynthesis Regulates Brace Root Angle and Lodging Resistance in Maize. New Phytol. :doi: 10.1111/nph.18733.     Reference: October 20th, 2023
Gene Product: June 18th, 2018
Gene Model: August 19th, 2017
6 months agoaic4 auxin import carrier4:
 
GRMZM2G067022
Zheng, ZG et al. 2023. Local Auxin Biosynthesis Regulates Brace Root Angle and Lodging Resistance in Maize. New Phytol. :doi: 10.1111/nph.18733.     Reference: October 20th, 2023
Gene Product: April 19th, 2017
Gene Model: December 28th, 2018
6 months agoalt12 alanine aminotransferase12:
 
GRMZM5G828630
Claeys, H et al. 2023. Coordinated gene upregulation in maize through CRISPR/Cas-mediated enhancer insertion. Plant Biotechnol J. :doi: 10.1111/pbi.14191.     Reference: October 20th, 2023
Gene Product: October 2nd, 2020
Gene Model: July 22nd, 2020
6 months agoyuc10 yucca10:
 
GRMZM2G013045
Zheng, ZG et al. 2023. Local Auxin Biosynthesis Regulates Brace Root Angle and Lodging Resistance in Maize. New Phytol. :doi: 10.1111/nph.18733.     Reference: October 20th, 2023
Gene Product: June 18th, 2018
Gene Model: October 6th, 2021
6 months agosaur42 small auxin up RNA42:
 
GRMZM2G015049
Kong, DX et al. 2022. UB2/UB3/TSH4-anchored transcriptional networks regulate early maize inflorescence development in response to simulated shade. Plant Cell. :doi: 10.1093/plcell/koac352.     Reference: October 20th, 2023
Gene Product: November 26th, 2021
Gene Model: November 26th, 2021
6 months agogogat2 glutamate synthase2:
 
GRMZM2G085078
Claeys, H et al. 2023. Coordinated gene upregulation in maize through CRISPR/Cas-mediated enhancer insertion. Plant Biotechnol J. :doi: 10.1111/pbi.14191.     Reference: October 20th, 2023
Gene Product: January 2nd, 2022
Gene Model: January 2nd, 2022
6 months agoyuc11 yucca11:
 
GRMZM2G328780
Zheng, ZG et al. 2023. Local Auxin Biosynthesis Regulates Brace Root Angle and Lodging Resistance in Maize. New Phytol. :doi: 10.1111/nph.18733.     Reference: October 20th, 2023
Gene Product: June 18th, 2018
Gene Model: June 17th, 2022
6 months agoyuc12 yucca12:
 
GRMZM2G025748
Zheng, ZG et al. 2023. Local Auxin Biosynthesis Regulates Brace Root Angle and Lodging Resistance in Maize. New Phytol. :doi: 10.1111/nph.18733.     Reference: October 20th, 2023
Gene Product: June 18th, 2018
Gene Model: June 17th, 2022
6 months agoyuc13 yucca13:
 
GRMZM2G333035
Zheng, ZG et al. 2023. Local Auxin Biosynthesis Regulates Brace Root Angle and Lodging Resistance in Maize. New Phytol. :doi: 10.1111/nph.18733.     Reference: October 20th, 2023
Gene Product: June 18th, 2018
Gene Model: June 17th, 2022
6 months agoyuc5 Yucca5:
7.02
GRMZM2G132489
Zheng, ZG et al. 2023. Local Auxin Biosynthesis Regulates Brace Root Angle and Lodging Resistance in Maize. New Phytol. :doi: 10.1111/nph.18733.     Reference: October 20th, 2023
Gene Product: June 18th, 2018
Gene Model: June 17th, 2016
6 months agoZm00001eb018140  :
 
   Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
6 months agoZm00001eb282350  :
 
   Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
6 months agoZm00001eb208490  :
 
   Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
6 months agophm5798  :
5.03
GRMZM5G872147
Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
Gene Model: August 27th, 2021
6 months agoRS2Z35  :
6.01
   Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
6 months agoRS2Z37B  :
6.01
GRMZM2G099317
Rauch, HB et al. 2013. Mol Biol Evol 31:605-613     Reference: January 25th, 2021
Gene Product: October 18th, 2023
Gene Model: December 17th, 2019
6 months agoTIDP3152  :
2.08
GRMZM2G077823
Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
Gene Model: February 20th, 2019
6 months agomagi9101  :
4.05
GRMZM2G107896
Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
Gene Model: April 18th, 2020
6 months agoasrp2 arginine/serine-rich splicing factor2:
2.05
GRMZM2G021223
Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
Variation: February 7th, 2009
Gene Model: February 1st, 2018
6 months agoAY109715  :
4.00
GRMZM2G145725
Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
Variation: July 29th, 2004
Gene Model: April 12th, 2018
6 months agoSC32  :
1.06
   Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
Variation: September 25th, 2007
6 months agopco118328a  :
4.07
GRMZM2G070239
Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
Gene Model: April 22nd, 2020
6 months agosrp32 serine/ariginine domain protein32:
 
GRMZM2G436092
Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
Gene Model: June 25th, 2020
6 months agosrp30 serine/ariginine domain protein30:
 
GRMZM2G331811
Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
Gene Model: June 25th, 2020
6 months agoRS2Z37A  :
 
GRMZM2G175419
Rauch, HB et al. 2013. Mol Biol Evol 31:605-613     Reference: January 25th, 2021
Gene Product: October 18th, 2023
Gene Model: January 25th, 2021
6 months agoSC30  :
 
GRMZM2G016296
Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
Gene Model: January 25th, 2021
6 months agoSC26  :
 
GRMZM2G104353
Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
Gene Model: January 25th, 2021
6 months agoSCL28  :
 
   Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
6 months agoSCL25A  :
 
GRMZM2G426229
Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
Gene Model: January 25th, 2021
6 months agosr45_1 splicing regulator45_1:
 
GRMZM2G060540
Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
Gene Model: January 25th, 2021
6 months agosr45_2 splicing regulator45_2:
 
GRMZM2G133926
Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
Gene Model: January 25th, 2021
6 months agoSR30  :
 
GRMZM2G390729
Rauch, HB et al. 2013. Mol Biol Evol 31:605-613     Reference: January 25th, 2021
Gene Product: October 18th, 2023
Gene Model: January 25th, 2021
6 months agoRSZ28  :
5.05
GRMZM2G027105
Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
Gene Model: May 20th, 2020
6 months agoSCL25B  :
7.04
GRMZM5G867185
Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
Gene Model: January 25th, 2021
6 months agosi618042d11  :
7.04
   Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
6 months agoRSZ21  :
9.02
GRMZM2G151923
Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
Gene Model: January 25th, 2021
6 months agoRS2Z39  :
8.05
GRMZM2G474658
Rauch, HB et al. 2013. Mol Biol Evol 31:605-613     Reference: January 25th, 2021
Gene Product: October 18th, 2023
Gene Model: January 25th, 2021
6 months agoasrp1 arginine/serine-rich splicing factor1:
10.04
GRMZM2G052166
Nan, G et al. 2022. Plant Cell pp.doi: 10.1093/plcell/koac007     Reference: January 10th, 2022
Gene Product: October 18th, 2023
Variation: February 7th, 2009
Gene Model: January 3rd, 2018
6 months agosrp31 serine/ariginine domain protein31:
6.05
GRMZM2G170365
Rui Gao et al. 2023. Comprehensive study of serine/arginine-rich (SR) gene family in rice: characterization, evolution and expression analysis. PeerJ. 11:e16193.     Reference: October 18th, 2023
Gene Product: October 18th, 2023
Gene Model: January 8th, 2020
6 months agoSCL30  :
1.05
GRMZM2G065066
Rauch, HB et al. 2013. Mol Biol Evol 31:605-613     Reference: January 25th, 2021
Gene Product: October 18th, 2023
Gene Model: February 9th, 2020
6 months agobak6 brassinosteroid insensitive1-associated receptor kinase like6:
 
   Runze Di et al. 2023. Sheath Blight of Maize: An Overview and Prospects for Future Research Directions Agriculture. 13:2006.     Reference: October 16th, 2023
Gene Product: January 18th, 2021
6 months agohak3 potassium high-affinity transporter3:
 
GRMZM2G477457
Guo, S et al. 2023. Dynamic transcriptome analysis unravels key regulatory genes of maize root growth and development in response to potassium deficiency. Planta. 258:99.     Reference: October 16th, 2023
Gene Product: March 12th, 2020
Gene Model: March 12th, 2020
6 months agohak6 potassium high-affinity transporter6:
 
GRMZM2G097505
Guo, S et al. 2023. Dynamic transcriptome analysis unravels key regulatory genes of maize root growth and development in response to potassium deficiency. Planta. 258:99.     Reference: October 16th, 2023
Gene Product: March 12th, 2020
Gene Model: March 12th, 2020
6 months agowrky131 WRKY-transcription factor 131:
 
GRMZM5G894568
Guo, S et al. 2023. Dynamic transcriptome analysis unravels key regulatory genes of maize root growth and development in response to potassium deficiency. Planta. 258:99.     Reference: October 16th, 2023
Gene Product: July 24th, 2017
Gene Model: December 2nd, 2021
6 months agoork1 outward rectifying potassium channel1:
4.05
GRMZM2G156255
Guo, S et al. 2023. Dynamic transcriptome analysis unravels key regulatory genes of maize root growth and development in response to potassium deficiency. Planta. 258:99.     Reference: October 16th, 2023
Gene Product: February 19th, 2008
Variation: February 19th, 2008
Gene Model: June 3rd, 2017
6 months agopgl49 polygalacturonase49:
8.03
GRMZM2G026804
Yingni Huang et al. 2023. The Resistance of Maize to Ustilago maydis Infection Is Correlated with the Degree of Methyl Esterification of Pectin in the Cell Wall. Int J Mol Sci. 24:14737.     Reference: October 14th, 2023
Gene Product: October 4th, 2021
Gene Model: July 10th, 2021
6 months agoumc1489  :
3.07
GRMZM2G077307
Yingni Huang et al. 2023. The Resistance of Maize to Ustilago maydis Infection Is Correlated with the Degree of Methyl Esterification of Pectin in the Cell Wall. Int J Mol Sci. 24:14737.     Reference: October 14th, 2023
Variation: September 1st, 2003
Gene Model: April 2nd, 2018
6 months agopme10 pectin methylesterase10:
 
GRMZM2G321870
Yingni Huang et al. 2023. The Resistance of Maize to Ustilago maydis Infection Is Correlated with the Degree of Methyl Esterification of Pectin in the Cell Wall. Int J Mol Sci. 24:14737.     Reference: October 14th, 2023
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
6 months agopme16 pectin methylesterase16:
 
GRMZM2G119864
Yingni Huang et al. 2023. The Resistance of Maize to Ustilago maydis Infection Is Correlated with the Degree of Methyl Esterification of Pectin in the Cell Wall. Int J Mol Sci. 24:14737.     Reference: October 14th, 2023
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
6 months agopme17 pectin methylesterase17:
 
GRMZM2G128682
Yingni Huang et al. 2023. The Resistance of Maize to Ustilago maydis Infection Is Correlated with the Degree of Methyl Esterification of Pectin in the Cell Wall. Int J Mol Sci. 24:14737.     Reference: October 14th, 2023
Gene Product: September 10th, 2018
Gene Model: December 28th, 2019
6 months agopmei26 pectin methylesterase inhibitor26:
 
GRMZM2G133146
Yingni Huang et al. 2023. The Resistance of Maize to Ustilago maydis Infection Is Correlated with the Degree of Methyl Esterification of Pectin in the Cell Wall. Int J Mol Sci. 24:14737.     Reference: October 14th, 2023
Gene Product: January 8th, 2019
Gene Model: December 28th, 2019
6 months agopmtr1 phytomelatonin receptor1 :
 
GRMZM2G123732
Dipankar Barman et al. 2023. Identification of rice melatonin receptor OsPMTR and its comparative in silico analysis with arabidopsis AtCAND2 receptor S Afr J Bot. 162:813-829.   AT3G05010 (TAIR) Reference: October 14th, 2023
Gene Product: December 20th, 2021
Variation: December 20th, 2021
Gene Model: December 20th, 2021
6 months agoprp16 pathogenesis-related protein116:
5.08
GRMZM5G852886
Lopez-Coria, M et al. 2023. Maize plant expresses SWEET transporters differently when interacting with Trichoderma asperellum and Fusarium verticillioides, two fungi with different lifestyles. Frontiers in Plant Science. 14:1253741.     Reference: October 13th, 2023
Gene Product: December 12th, 2022
Variation: September 1st, 2003
Gene Model: July 14th, 2018
6 months agoaos1 allene oxide synthase1:
9.06
GRMZM2G067225
Lopez-Coria, M et al. 2023. Maize plant expresses SWEET transporters differently when interacting with Trichoderma asperellum and Fusarium verticillioides, two fungi with different lifestyles. Frontiers in Plant Science. 14:1253741.     Reference: October 13th, 2023
Gene Product: September 1st, 2003
Variation: September 24th, 2010
Gene Model: October 29th, 2015
6 months agosweet2 sugars will eventually be exported transporter2:
 
GRMZM2G324903
Lopez-Coria, M et al. 2023. Maize plant expresses SWEET transporters differently when interacting with Trichoderma asperellum and Fusarium verticillioides, two fungi with different lifestyles. Frontiers in Plant Science. 14:1253741.     Reference: October 13th, 2023
Gene Product: November 4th, 2015
Variation: March 19th, 2021
Gene Model: November 3rd, 2015
6 months agosweet3b sugars will eventually be exported transporter3b:
 
GRMZM2G060974
Lopez-Coria, M et al. 2023. Maize plant expresses SWEET transporters differently when interacting with Trichoderma asperellum and Fusarium verticillioides, two fungi with different lifestyles. Frontiers in Plant Science. 14:1253741.     Reference: October 13th, 2023
Gene Product: November 4th, 2015
Gene Model: November 3rd, 2015
6 months agosweet12a sugars will eventually be exported transporter12a:
 
GRMZM2G133322
Lopez-Coria, M et al. 2023. Maize plant expresses SWEET transporters differently when interacting with Trichoderma asperellum and Fusarium verticillioides, two fungi with different lifestyles. Frontiers in Plant Science. 14:1253741.     Reference: October 13th, 2023
Gene Product: November 4th, 2015
Gene Model: November 3rd, 2015
6 months agosweet14b sugars will eventually be exported transporter14b:
 
GRMZM2G015976
Lopez-Coria, M et al. 2023. Maize plant expresses SWEET transporters differently when interacting with Trichoderma asperellum and Fusarium verticillioides, two fungi with different lifestyles. Frontiers in Plant Science. 14:1253741.     Reference: October 13th, 2023
Gene Product: November 4th, 2015
Gene Model: November 3rd, 2015
6 months agosweet17a sugars will eventually be exported transporter17a:
 
GRMZM2G106462
Lopez-Coria, M et al. 2023. Maize plant expresses SWEET transporters differently when interacting with Trichoderma asperellum and Fusarium verticillioides, two fungi with different lifestyles. Frontiers in Plant Science. 14:1253741.     Reference: October 13th, 2023
Gene Product: November 4th, 2015
Variation: February 23rd, 2019
Gene Model: November 3rd, 2015
6 months agoaprt2 adenine phosphoribosyltransferase2:
3.04
GRMZM2G093347
Feizollah A Maleki et al. 2023. Stomatal closure prevents xylem transport of green leaf volatiles and impairs their systemic function in plants. Plant Cell Environ. :doi: 10.1111/pce.14735.     Reference: October 13th, 2023
Gene Product: April 17th, 2008
Gene Model: November 7th, 2021
6 months agoknox5 knotted related homeobox5:
8.05
GRMZM5G832409
Desbiez-Piat, A et al. 2023. Pervasive GxE interactions shape adaptive trajectories and the exploration of the phenotypic space in artificial selection experiments. Genetics. :doi:10.1093/genetics/iyad186.     Reference: October 12th, 2023
Gene Product: September 1st, 2003
Variation: March 9th, 2012
Gene Model: March 8th, 2012
7 months agoshki3 shikimate kinase3:
 
   Washburn, JD et al. 2023. GWAS analysis of maize host plant resistance to western corn rootworm (Coleoptera: Chrysomelidae) reveals candidate small effect loci for resistance breeding. J Econ Entomol.   AT2G21940 (TAIR) Reference: October 11th, 2023
Gene Product: January 2nd, 2023
7 months agovq23 VQ motif-transcription factor23:
 
GRMZM2G322950
Washburn, JD et al. 2023. GWAS analysis of maize host plant resistance to western corn rootworm (Coleoptera: Chrysomelidae) reveals candidate small effect loci for resistance breeding. J Econ Entomol.     Reference: October 11th, 2023
Gene Product: August 31st, 2019
Gene Model: August 31st, 2019
7 months agodhn2 dehydrin2:
9.03
GRMZM2G098750
Tang, X et al. 2023. Identification and Functional Analysis of Drought-Responsive Long Noncoding RNAs in Maize Roots Int J Mol Sci. 24:15039.     Reference: October 10th, 2023
Gene Product: September 1st, 2003
Gene Model: October 12th, 2018
7 months agosyd1 splayed ATPase1:
6.05
GRMZM2G387890
Yan, HY et al. 2023. PlantCHRs: a comprehensive database of plant chromatin remodeling factors Comput Struct Biotechnol J. :doi: 10.1016/j.csbj.2023.10.005.     Reference: October 10th, 2023
Variation: September 1st, 2003
Gene Model: August 15th, 2017
7 months agohsftf29 HSF-transcription factor 29:
 
   Erika L Ellison et al. 2023. Mutator transposon insertions within maize genes often provide a novel outward reading promoter Genetics. :doi: 10.1093/genetics/iyad171.     Reference: October 10th, 2023
Gene Product: May 15th, 2020
7 months agohsftf6 HSF-transcription factor 6:
 
   Erika L Ellison et al. 2023. Mutator transposon insertions within maize genes often provide a novel outward reading promoter Genetics. :doi: 10.1093/genetics/iyad171.     Reference: October 10th, 2023
Gene Product: May 15th, 2020
7 months agojmj13 JUMONJI-transcription factor 13:
 
   Erika L Ellison et al. 2023. Mutator transposon insertions within maize genes often provide a novel outward reading promoter Genetics. :doi: 10.1093/genetics/iyad171.     Reference: October 10th, 2023
Gene Product: April 3rd, 2019
7 months agosbp20 SBP-transcription factor 20:
 
   Erika L Ellison et al. 2023. Mutator transposon insertions within maize genes often provide a novel outward reading promoter Genetics. :doi: 10.1093/genetics/iyad171.     Reference: October 10th, 2023
Gene Product: July 5th, 2019
Variation: February 22nd, 2018
7 months agobrm1 brahma1:
 
GRMZM2G163849
Yan, HY et al. 2023. PlantCHRs: a comprehensive database of plant chromatin remodeling factors Comput Struct Biotechnol J. :doi: 10.1016/j.csbj.2023.10.005.   AT2G46020 (TAIR)
LOC_Os02g02290 (MSU/TIGR)
Reference: October 10th, 2023
Gene Product: July 7th, 2015
Variation: July 6th, 2015
Gene Model: July 6th, 2015
7 months agochr112a chromatin complex subunit A:
4.05
GRMZM2G030768
Yan, HY et al. 2023. PlantCHRs: a comprehensive database of plant chromatin remodeling factors Comput Struct Biotechnol J. :doi: 10.1016/j.csbj.2023.10.005.     Reference: October 10th, 2023
Variation: September 1st, 2003
Gene Model: November 14th, 2021
7 months agochr118 chromatin complex subunit A:
6.07
GRMZM2G168096
Yan, HY et al. 2023. PlantCHRs: a comprehensive database of plant chromatin remodeling factors Comput Struct Biotechnol J. :doi: 10.1016/j.csbj.2023.10.005.     Reference: October 10th, 2023
Variation: September 1st, 2003
Gene Model: November 10th, 2018
7 months agochr12 chromatin complex subunit A 12:
2.08
GRMZM2G097289
Yan, HY et al. 2023. PlantCHRs: a comprehensive database of plant chromatin remodeling factors Comput Struct Biotechnol J. :doi: 10.1016/j.csbj.2023.10.005.     Reference: October 10th, 2023
Variation: September 1st, 2003
Gene Model: July 27th, 2016
7 months agochr125a chromatin complex subunit A 125a:
9.04
GRMZM2G007922
Yan, HY et al. 2023. PlantCHRs: a comprehensive database of plant chromatin remodeling factors Comput Struct Biotechnol J. :doi: 10.1016/j.csbj.2023.10.005.     Reference: October 10th, 2023
Variation: September 1st, 2003
Gene Model: November 10th, 2018
7 months agochr125b chromatin complex subunit A:
1.04
GRMZM2G469162
Yan, HY et al. 2023. PlantCHRs: a comprehensive database of plant chromatin remodeling factors Comput Struct Biotechnol J. :doi: 10.1016/j.csbj.2023.10.005.     Reference: October 10th, 2023
Variation: September 1st, 2003
Gene Model: November 10th, 2018
7 months agochr126a chromatin complex subunit A 126a:
8.03
AC235535.1_FG001
Yan, HY et al. 2023. PlantCHRs: a comprehensive database of plant chromatin remodeling factors Comput Struct Biotechnol J. :doi: 10.1016/j.csbj.2023.10.005.     Reference: October 10th, 2023
Variation: September 1st, 2003
Gene Model: November 10th, 2018
7 months agochr126b chromatin complex subunit A 126b:
3.04
GRMZM2G015277
Yan, HY et al. 2023. PlantCHRs: a comprehensive database of plant chromatin remodeling factors Comput Struct Biotechnol J. :doi: 10.1016/j.csbj.2023.10.005.     Reference: October 10th, 2023
Variation: September 1st, 2003
Gene Model: November 10th, 2018
7 months agochr127  :
4.05
GRMZM2G574858
Yan, HY et al. 2023. PlantCHRs: a comprehensive database of plant chromatin remodeling factors Comput Struct Biotechnol J. :doi: 10.1016/j.csbj.2023.10.005.     Reference: October 10th, 2023
Variation: September 25th, 2007
Gene Model: August 22nd, 2021
7 months agoIDP2558  :
4.04
GRMZM2G449355
Yan, HY et al. 2023. PlantCHRs: a comprehensive database of plant chromatin remodeling factors Comput Struct Biotechnol J. :doi: 10.1016/j.csbj.2023.10.005.     Reference: October 10th, 2023
Variation: March 31st, 2005
Gene Model: April 13th, 2020
7 months agoIDP1673  :
7.05
GRMZM2G148249
Yan, HY et al. 2023. PlantCHRs: a comprehensive database of plant chromatin remodeling factors Comput Struct Biotechnol J. :doi: 10.1016/j.csbj.2023.10.005.     Reference: October 10th, 2023
Variation: March 31st, 2005
Gene Model: February 6th, 2019
7 months agohmg1 high mobility group protein1:
5.03
   Maman, S et al. 2023. Low expression of lipoxygenase 3 (LOX3) enhances the retention of kernel tocopherols in maize during storage. Mol Biol Rep. :doi: 10.1007/s11033-023-08820-8..     Reference: October 9th, 2023
Gene Product: September 1st, 2003
Variation: July 26th, 2013
7 months agocl5926_1a  :
1.06
GRMZM2G075003
Du, L et al. 2023. Transcriptome Analysis and QTL Mapping Identify Candidate Genes and Regulatory Mechanisms Related to Low-Temperature Germination Ability in Maize Genes. 14:1917.     Reference: October 9th, 2023
Variation: September 25th, 2007
Gene Model: August 8th, 2021
7 months agoso1 sulfite oxidase1:
1.06
GRMZM2G114739
Du, L et al. 2023. Transcriptome Analysis and QTL Mapping Identify Candidate Genes and Regulatory Mechanisms Related to Low-Temperature Germination Ability in Maize Genes. 14:1917.     Reference: October 9th, 2023
Gene Product: April 16th, 2013
Gene Model: April 16th, 2013
7 months agolox7 lipoxygenase7:
10.04
GRMZM2G070092
Maman, S et al. 2023. Low expression of lipoxygenase 3 (LOX3) enhances the retention of kernel tocopherols in maize during storage. Mol Biol Rep. :doi: 10.1007/s11033-023-08820-8..     Reference: October 9th, 2023
Gene Product: January 3rd, 2018
Variation: April 23rd, 2009
Gene Model: June 10th, 2014
7 months agolox9 lipoxygenase9:
1.02
GRMZM2G017616
Maman, S et al. 2023. Low expression of lipoxygenase 3 (LOX3) enhances the retention of kernel tocopherols in maize during storage. Mol Biol Rep. :doi: 10.1007/s11033-023-08820-8..     Reference: October 9th, 2023
Gene Product: January 3rd, 2018
Variation: June 12th, 2014
Gene Model: October 23rd, 2013
7 months agodsc2 Discolored-paralog2:
 
GRMZM5G872204
Du, L et al. 2023. Transcriptome Analysis and QTL Mapping Identify Candidate Genes and Regulatory Mechanisms Related to Low-Temperature Germination Ability in Maize Genes. 14:1917.     Reference: October 9th, 2023
Gene Product: June 23rd, 2012
Gene Model: June 22nd, 2012
7 months agonbcs4 nucleobase:cation symporter4:
 
GRMZM2G045781
Shu, GP et al. 2023. Identification of southern corn rust resistance QTNs in Chinese summer maize germplasm via multi-locus GWAS and post-GWAS analysis. Frontiers in Plant Science. 14:1221395.     Reference: October 9th, 2023
Gene Product: July 14th, 2018
Gene Model: July 14th, 2018
7 months agocct23 CO CO-LIKE TIMING OF CAB1 protein domain23:
 
GRMZM2G488465
Shu, GP et al. 2023. Identification of southern corn rust resistance QTNs in Chinese summer maize germplasm via multi-locus GWAS and post-GWAS analysis. Frontiers in Plant Science. 14:1221395.     Reference: October 9th, 2023
Gene Product: June 18th, 2018
Gene Model: August 17th, 2021
7 months agorlk10 receptor-like protein kinase10:
 
GRMZM2G132212
Shu, GP et al. 2023. Identification of southern corn rust resistance QTNs in Chinese summer maize germplasm via multi-locus GWAS and post-GWAS analysis. Frontiers in Plant Science. 14:1221395.     Reference: October 9th, 2023
Gene Product: July 10th, 2019
Variation: September 17th, 2021
Gene Model: September 17th, 2021
7 months agoIDP716  :
1.07
GRMZM5G882446
Du, L et al. 2023. Transcriptome Analysis and QTL Mapping Identify Candidate Genes and Regulatory Mechanisms Related to Low-Temperature Germination Ability in Maize Genes. 14:1917.     Reference: October 9th, 2023
Variation: March 31st, 2005
Gene Model: February 14th, 2019
7 months agouce14 ubiquitin conjugating enzyme14:
 
GRMZM2G074479
Dong, XM et al. 2023. Transcriptome-wide identification and characterization of genes exhibit allele-specific imprinting in maize embryo and endosperm. BMC Plant Biology. 23:470.     Reference: October 7th, 2023
Gene Product: December 19th, 2019
Gene Model: November 26th, 2019
7 months agomcm5 minichromosome maintenance5:
5.08
GRMZM2G075978
Dong, XM et al. 2023. Transcriptome-wide identification and characterization of genes exhibit allele-specific imprinting in maize embryo and endosperm. BMC Plant Biology. 23:470.     Reference: October 7th, 2023
Gene Product: August 2nd, 2017
Gene Model: July 31st, 2017
7 months agoctr2 constitutive triple response2:
 
GRMZM2G098187
Dong, XM et al. 2023. Transcriptome-wide identification and characterization of genes exhibit allele-specific imprinting in maize embryo and endosperm. BMC Plant Biology. 23:470.     Reference: October 7th, 2023
Gene Product: May 13th, 2014
Gene Model: June 24th, 2021
7 months agopat1 protein S-acyltransferase1:
 
GRMZM2G111191
Dong, XM et al. 2023. Transcriptome-wide identification and characterization of genes exhibit allele-specific imprinting in maize embryo and endosperm. BMC Plant Biology. 23:470.     Reference: October 7th, 2023
Gene Product: February 26th, 2022
Gene Model: February 26th, 2022
7 months agoIDP2450  :
1.10
GRMZM5G837018
Dong, XM et al. 2023. Transcriptome-wide identification and characterization of genes exhibit allele-specific imprinting in maize embryo and endosperm. BMC Plant Biology. 23:470.     Reference: October 7th, 2023
Variation: March 31st, 2005
Gene Model: February 15th, 2019
7 months agoIDP343  :
1.02
GRMZM2G023575
Dong, XM et al. 2023. Transcriptome-wide identification and characterization of genes exhibit allele-specific imprinting in maize embryo and endosperm. BMC Plant Biology. 23:470.     Reference: October 7th, 2023
Variation: March 31st, 2005
Gene Model: February 11th, 2019
7 months agoIDP3835  :
7.05
GRMZM2G083580
Dong, XM et al. 2023. Transcriptome-wide identification and characterization of genes exhibit allele-specific imprinting in maize embryo and endosperm. BMC Plant Biology. 23:470.     Reference: October 7th, 2023
Variation: March 31st, 2005
Gene Model: July 7th, 2021
7 months agomdh2 malate dehydrogenase2:
6.07
   Qu, LL et al. 2023. Leaf photosynthetic characteristics of waxy maize in response to different degrees of heat stress during grain filling BMC Plant Biology. 23:469.     Reference: October 6th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
7 months agomdh4 malate dehydrogenase4:
1.08
   Qu, LL et al. 2023. Leaf photosynthetic characteristics of waxy maize in response to different degrees of heat stress during grain filling BMC Plant Biology. 23:469.     Reference: October 6th, 2023
Gene Product: September 1st, 2003
Variation: May 22nd, 2020
7 months agorlsb1 rbcl rna s1-binding domain protein1:
 
GRMZM2G087628
Qu, LL et al. 2023. Leaf photosynthetic characteristics of waxy maize in response to different degrees of heat stress during grain filling BMC Plant Biology. 23:469.   AT1G71720 (TAIR) Reference: October 6th, 2023
Gene Product: July 1st, 2016
Variation: April 10th, 2019
Gene Model: October 19th, 2013
7 months agorlsb2 rbcl rna s1-binding domain protein2:
 
GRMZM2G546254
Qu, LL et al. 2023. Leaf photosynthetic characteristics of waxy maize in response to different degrees of heat stress during grain filling BMC Plant Biology. 23:469.   AT1G71720 (TAIR) Reference: October 6th, 2023
Gene Product: July 1st, 2016
Variation: July 1st, 2016
Gene Model: July 1st, 2016
7 months agoxgt2 xyloglucan glycosyltransferase2:
 
GRMZM2G135286
Francesco Pancaldi et al. 2023. Highly differentiated genomic properties underpin the different cell walls of Poaceae and eudicots Plant Physiol. :doi: 10.1093/plphys/kiad267.   AT3G28180 (TAIR) Reference: October 6th, 2023
Gene Product: July 2nd, 2020
Gene Model: July 2nd, 2020
7 months agocipk29 calcineurin B-like-interacting protein kinase29:
 
GRMZM2G177050
Ningning Zhang et al. 2023. Molecular mechanisms of drought resistance using genome-wide association mapping in maize (Zea mays L.) BMC Plant Biology. 23:468.     Reference: October 6th, 2023
Gene Product: August 25th, 2018
Gene Model: September 8th, 2021
7 months agoplt20 phospholipid transfer protein20:
2.04
GRMZM2G136364
Ningning Zhang et al. 2023. Molecular mechanisms of drought resistance using genome-wide association mapping in maize (Zea mays L.) BMC Plant Biology. 23:468.     Reference: October 6th, 2023
Gene Product: September 1st, 2003
Variation: March 31st, 2005
Gene Model: February 19th, 2019
7 months agoprp18 pathogenesis-related protein18:
 
   Li, J et al. 2023. Integrated Transcriptomic and Proteomic Analyses of Low-Nitrogen-Stress Tolerance and Function Analysis of ZmGST42 Gene in Maize Antioxidants. 12:1831.     Reference: October 5th, 2023
Gene Product: December 12th, 2022
7 months agoplt18 phospholipid transfer protein18:
 
   Li, J et al. 2023. Integrated Transcriptomic and Proteomic Analyses of Low-Nitrogen-Stress Tolerance and Function Analysis of ZmGST42 Gene in Maize Antioxidants. 12:1831.     Reference: October 5th, 2023
Gene Product: September 1st, 2003
7 months agowrky132 WRKY-transcription factor 132:
 
   Wang, Y et al. 2023. Genome-Wide Characterization of the Maize (Zea mays L.) WRKY Transcription Factor Family and Their Responses to U. maydis Int J Mol Sci. 24:14916.     Reference: October 5th, 2023
Gene Product: July 24th, 2017
7 months agowrky139 WRKY-transcription factor 139:
 
   Wang, Y et al. 2023. Genome-Wide Characterization of the Maize (Zea mays L.) WRKY Transcription Factor Family and Their Responses to U. maydis Int J Mol Sci. 24:14916.     Reference: October 5th, 2023
Gene Product: July 24th, 2017
7 months agocdpk13 calcium dependent protein kinase13:
 
GRMZM2G173928
Hao Wu et al. 2023. NAKED ENDOSPERM1, NAKED ENDOSPERM2, and OPAQUE2 interact to regulate gene networks in maize endosperm development. Plant Cell. :doi: 10.1093/plcell/koad247.     Reference: October 5th, 2023
Gene Product: December 3rd, 2013
Variation: November 15th, 2013
Gene Model: March 31st, 2015
7 months agogap1 Golgi associated protein homolog:
1.08
GRMZM2G073725
Hao Wu et al. 2023. NAKED ENDOSPERM1, NAKED ENDOSPERM2, and OPAQUE2 interact to regulate gene networks in maize endosperm development. Plant Cell. :doi: 10.1093/plcell/koad247.     Reference: October 5th, 2023
Gene Product: September 1st, 2003
Variation: January 29th, 2015
Gene Model: January 29th, 2015
7 months agowrky22 WRKY-transcription factor 22:
8.09
GRMZM2G111354
Wang, Y et al. 2023. Genome-Wide Characterization of the Maize (Zea mays L.) WRKY Transcription Factor Family and Their Responses to U. maydis Int J Mol Sci. 24:14916.     Reference: October 5th, 2023
Variation: September 1st, 2003
Gene Model: September 24th, 2018
7 months agowrky70 WRKY-transcription factor 70:
2.02
GRMZM2G024898
Wang, Y et al. 2023. Genome-Wide Characterization of the Maize (Zea mays L.) WRKY Transcription Factor Family and Their Responses to U. maydis Int J Mol Sci. 24:14916.     Reference: October 5th, 2023
Variation: September 1st, 2003
Gene Model: October 2nd, 2018
7 months agowrky27 WRKY-transcription factor 27:
3.02
GRMZM2G475984
Wang, Y et al. 2023. Genome-Wide Characterization of the Maize (Zea mays L.) WRKY Transcription Factor Family and Their Responses to U. maydis Int J Mol Sci. 24:14916.     Reference: October 5th, 2023
Variation: September 1st, 2003
Gene Model: March 22nd, 2018
7 months agohb75 Homeobox-transcription factor 75:
2.02
GRMZM2G001289
Hao Wu et al. 2023. NAKED ENDOSPERM1, NAKED ENDOSPERM2, and OPAQUE2 interact to regulate gene networks in maize endosperm development. Plant Cell. :doi: 10.1093/plcell/koad247.     Reference: October 5th, 2023
Variation: September 1st, 2003
Gene Model: February 6th, 2018
7 months agotubtf6 TUB-transcription factor 6:
 
   Hao Wu et al. 2023. NAKED ENDOSPERM1, NAKED ENDOSPERM2, and OPAQUE2 interact to regulate gene networks in maize endosperm development. Plant Cell. :doi: 10.1093/plcell/koad247.     Reference: October 5th, 2023
Gene Product: September 29th, 2015
7 months agowrky105 WRKY-transcription factor 105:
 
   Wang, Y et al. 2023. Genome-Wide Characterization of the Maize (Zea mays L.) WRKY Transcription Factor Family and Their Responses to U. maydis Int J Mol Sci. 24:14916.     Reference: October 5th, 2023
Variation: September 2nd, 2017
7 months agowrky122 WRKY-transcription factor 122:
 
   Wang, Y et al. 2023. Genome-Wide Characterization of the Maize (Zea mays L.) WRKY Transcription Factor Family and Their Responses to U. maydis Int J Mol Sci. 24:14916.     Reference: October 5th, 2023
Gene Product: July 24th, 2017
Variation: December 14th, 2016
7 months agowrky26 WRKY-transcription factor 26:
 
   Wang, Y et al. 2023. Genome-Wide Characterization of the Maize (Zea mays L.) WRKY Transcription Factor Family and Their Responses to U. maydis Int J Mol Sci. 24:14916.     Reference: October 5th, 2023
Gene Product: July 24th, 2017
Variation: September 18th, 2021
7 months agowrky38 WRKY-transcription factor 38:
 
   Wang, Y et al. 2023. Genome-Wide Characterization of the Maize (Zea mays L.) WRKY Transcription Factor Family and Their Responses to U. maydis Int J Mol Sci. 24:14916.     Reference: October 5th, 2023
Variation: July 21st, 2022
7 months agowrky54 WRKY-transcription factor 54:
 
   Wang, Y et al. 2023. Genome-Wide Characterization of the Maize (Zea mays L.) WRKY Transcription Factor Family and Their Responses to U. maydis Int J Mol Sci. 24:14916.     Reference: October 5th, 2023
Gene Product: July 24th, 2017
7 months agowrky127 WRKY-transcription factor 127:
5.06
   Wang, Y et al. 2023. Genome-Wide Characterization of the Maize (Zea mays L.) WRKY Transcription Factor Family and Their Responses to U. maydis Int J Mol Sci. 24:14916.     Reference: October 5th, 2023
Gene Product: July 24th, 2017
Variation: March 30th, 2017
7 months agogst42 glutathione transferase42:
1.04
GRMZM2G025190
Li, J et al. 2023. Integrated Transcriptomic and Proteomic Analyses of Low-Nitrogen-Stress Tolerance and Function Analysis of ZmGST42 Gene in Maize Antioxidants. 12:1831.     Reference: October 5th, 2023
Gene Product: September 1st, 2003
Gene Model: July 27th, 2016
7 months agoumc2332  :
7.04
GRMZM2G131243
Li, J et al. 2023. Integrated Transcriptomic and Proteomic Analyses of Low-Nitrogen-Stress Tolerance and Function Analysis of ZmGST42 Gene in Maize Antioxidants. 12:1831.     Reference: October 5th, 2023
Variation: September 11th, 2018
Gene Model: September 11th, 2018
7 months agoatp2 ATP synthase2:
8.03
GRMZM2G113408
Li, J et al. 2023. Integrated Transcriptomic and Proteomic Analyses of Low-Nitrogen-Stress Tolerance and Function Analysis of ZmGST42 Gene in Maize Antioxidants. 12:1831.     Reference: October 5th, 2023
Gene Product: September 1st, 2003
Variation: August 22nd, 2014
Gene Model: August 22nd, 2014
7 months agomate27 multidrug and toxic compound extrusion27:
4.05
GRMZM2G043075
Li, J et al. 2023. Integrated Transcriptomic and Proteomic Analyses of Low-Nitrogen-Stress Tolerance and Function Analysis of ZmGST42 Gene in Maize Antioxidants. 12:1831.     Reference: October 5th, 2023
Gene Product: August 17th, 2015
Variation: September 25th, 2007
Gene Model: April 17th, 2020
7 months agonkd1 naked endosperm1:
 
GRMZM2G129261
Hao Wu et al. 2023. NAKED ENDOSPERM1, NAKED ENDOSPERM2, and OPAQUE2 interact to regulate gene networks in maize endosperm development. Plant Cell. :doi: 10.1093/plcell/koad247.     Reference: October 5th, 2023
Gene Product: January 3rd, 2015
Variation: January 3rd, 2015
Gene Model: January 2nd, 2015
7 months agoepf2 epidermal patterning factor-like2:
 
GRMZM2G431783
Li, J et al. 2023. Integrated Transcriptomic and Proteomic Analyses of Low-Nitrogen-Stress Tolerance and Function Analysis of ZmGST42 Gene in Maize Antioxidants. 12:1831.     Reference: October 5th, 2023
Gene Product: July 10th, 2019
Gene Model: July 10th, 2019
7 months agowrky126 WRKY-transcription factor 126:
 
GRMZM5G851490
Wang, Y et al. 2023. Genome-Wide Characterization of the Maize (Zea mays L.) WRKY Transcription Factor Family and Their Responses to U. maydis Int J Mol Sci. 24:14916.     Reference: October 5th, 2023
Gene Product: July 24th, 2017
Gene Model: September 9th, 2020
7 months agowrky136 WRKY-transcription factor 136:
 
   Wang, Y et al. 2023. Genome-Wide Characterization of the Maize (Zea mays L.) WRKY Transcription Factor Family and Their Responses to U. maydis Int J Mol Sci. 24:14916.     Reference: October 5th, 2023
Gene Product: July 24th, 2017
7 months agocsu308  :
5.04
GRMZM2G113332
Li, J et al. 2023. Integrated Transcriptomic and Proteomic Analyses of Low-Nitrogen-Stress Tolerance and Function Analysis of ZmGST42 Gene in Maize Antioxidants. 12:1831.     Reference: October 5th, 2023
Variation: September 25th, 2007
Gene Model: August 28th, 2021
7 months agowrky9 WRKY-transcription factor 9:
4.08
GRMZM2G169564
Wang, Y et al. 2023. Genome-Wide Characterization of the Maize (Zea mays L.) WRKY Transcription Factor Family and Their Responses to U. maydis Int J Mol Sci. 24:14916.     Reference: October 5th, 2023
Gene Product: July 24th, 2017
Variation: March 31st, 2005
Gene Model: May 24th, 2021
7 months agoIDP535  :
8.05
GRMZM2G101664
Li, J et al. 2023. Integrated Transcriptomic and Proteomic Analyses of Low-Nitrogen-Stress Tolerance and Function Analysis of ZmGST42 Gene in Maize Antioxidants. 12:1831.     Reference: October 5th, 2023
Variation: March 31st, 2005
Gene Model: July 12th, 2021
7 months agoIDP103  :
10.01
GRMZM5G822449
Li, J et al. 2023. Integrated Transcriptomic and Proteomic Analyses of Low-Nitrogen-Stress Tolerance and Function Analysis of ZmGST42 Gene in Maize Antioxidants. 12:1831.     Reference: October 5th, 2023
Variation: March 31st, 2005
Gene Model: December 31st, 2017
7 months agopgd3 phosphogluconate dehydrogenase3:
4.03
GRMZM2G440208
Cao, HR et al. 2023. ZmNRT1.1B (ZmNPF6.6) determines nitrogen use efficiency via regulation of nitrate transport and signalling in maize. Plant Biotechnol J.     Reference: October 3rd, 2023
Gene Product: December 16th, 2020
Variation: March 4th, 2021
Gene Model: July 28th, 2016
7 months agoctr1 constitutive triple response1:
5.04
GRMZM2G059671
Xie, SY et al. 2023. Striking a growth-defense balance: Stress regulators that function in maize development. J Integr Plant Biol. :doi: 10.1111/jipb.13570.     Reference: October 3rd, 2023
Gene Product: May 13th, 2014
Gene Model: June 24th, 2021
7 months agovp2 viviparous2:
5.03
   Xie, SY et al. 2023. Striking a growth-defense balance: Stress regulators that function in maize development. J Integr Plant Biol. :doi: 10.1111/jipb.13570.     Reference: October 3rd, 2023
Variation: November 11th, 2010
7 months agow3 white seedling3:
2.08 - 2.07
GRMZM2G113476
Xie, SY et al. 2023. Striking a growth-defense balance: Stress regulators that function in maize development. J Integr Plant Biol. :doi: 10.1111/jipb.13570.   AT3G11945 (TAIR) Reference: October 3rd, 2023
Gene Product: January 8th, 2018
Variation: January 8th, 2018
Gene Model: January 8th, 2018
7 months agovp10 viviparous10:
10.07
   Xie, SY et al. 2023. Striking a growth-defense balance: Stress regulators that function in maize development. J Integr Plant Biol. :doi: 10.1111/jipb.13570.     Reference: October 3rd, 2023
Gene Product: February 22nd, 2007
Variation: June 23rd, 2012
7 months agosi1 silky1:
6.01
   Xie, SY et al. 2023. Striking a growth-defense balance: Stress regulators that function in maize development. J Integr Plant Biol. :doi: 10.1111/jipb.13570.     Reference: October 3rd, 2023
Variation: November 2nd, 2015
7 months agovp15 viviparous15:
5.05
   Xie, SY et al. 2023. Striking a growth-defense balance: Stress regulators that function in maize development. J Integr Plant Biol. :doi: 10.1111/jipb.13570.     Reference: October 3rd, 2023
Gene Product: February 22nd, 2007
Variation: July 27th, 2009
7 months agoipt6 isopentenyl transferase6:
 
GRMZM2G116878
Cao, HR et al. 2023. ZmNRT1.1B (ZmNPF6.6) determines nitrogen use efficiency via regulation of nitrate transport and signalling in maize. Plant Biotechnol J.     Reference: October 3rd, 2023
Gene Product: March 19th, 2014
Gene Model: July 10th, 2013
7 months agozar1 Zea mays ARGOS1:
 
GRMZM2G446201
Xie, SY et al. 2023. Striking a growth-defense balance: Stress regulators that function in maize development. J Integr Plant Biol. :doi: 10.1111/jipb.13570.     Reference: October 3rd, 2023
Gene Product: August 3rd, 2015
Gene Model: April 14th, 2014
7 months agonpf3 nitrate transporter/peptide transporter family3:
 
GRMZM2G112154
Cao, HR et al. 2023. ZmNRT1.1B (ZmNPF6.6) determines nitrogen use efficiency via regulation of nitrate transport and signalling in maize. Plant Biotechnol J.     Reference: October 3rd, 2023
Gene Product: September 1st, 2003
Gene Model: May 10th, 2018
7 months agonpf4 nitrate transporter/peptide transporter family4:
 
GRMZM2G161483
Cao, HR et al. 2023. ZmNRT1.1B (ZmNPF6.6) determines nitrogen use efficiency via regulation of nitrate transport and signalling in maize. Plant Biotechnol J.     Reference: October 3rd, 2023
Gene Product: September 1st, 2003
Gene Model: May 10th, 2018
7 months agosro6 similar to RCD one6:
 
GRMZM2G177878
Xie, SY et al. 2023. Striking a growth-defense balance: Stress regulators that function in maize development. J Integr Plant Biol. :doi: 10.1111/jipb.13570.     Reference: October 3rd, 2023
Gene Product: September 7th, 2018
Gene Model: August 10th, 2018
7 months agondl1 needle1:
 
GRMZM2G038401
Xie, SY et al. 2023. Striking a growth-defense balance: Stress regulators that function in maize development. J Integr Plant Biol. :doi: 10.1111/jipb.13570.     Reference: October 3rd, 2023
Gene Product: September 10th, 2019
Variation: September 10th, 2019
Gene Model: September 10th, 2019
7 months agovp16 viviparous16:
 
   Xie, SY et al. 2023. Striking a growth-defense balance: Stress regulators that function in maize development. J Integr Plant Biol. :doi: 10.1111/jipb.13570.     Reference: October 3rd, 2023
Variation: November 8th, 2019
7 months agodrg5 dark response gene5:
 
GRMZM2G135877
Xie, SY et al. 2023. Striking a growth-defense balance: Stress regulators that function in maize development. J Integr Plant Biol. :doi: 10.1111/jipb.13570.     Reference: October 3rd, 2023
Gene Product: August 17th, 2015
Variation: October 3rd, 2023
Gene Model: June 6th, 2020
7 months agosi3 silky3:
 
AC209624.2_FG001
Xie, SY et al. 2023. Striking a growth-defense balance: Stress regulators that function in maize development. J Integr Plant Biol. :doi: 10.1111/jipb.13570.     Reference: October 3rd, 2023
Gene Product: October 2nd, 2020
Variation: October 2nd, 2020
Gene Model: October 1st, 2020
7 months agogrx5 glutaredoxin5:
 
GRMZM2G470756
Xie, SY et al. 2023. Striking a growth-defense balance: Stress regulators that function in maize development. J Integr Plant Biol. :doi: 10.1111/jipb.13570.     Reference: October 3rd, 2023
Gene Product: January 21st, 2021
Variation: December 14th, 2021
Gene Model: November 16th, 2021
7 months agogrx2 glutaredoxin2:
 
GRMZM2G480903
Xie, SY et al. 2023. Striking a growth-defense balance: Stress regulators that function in maize development. J Integr Plant Biol. :doi: 10.1111/jipb.13570.     Reference: October 3rd, 2023
Gene Product: January 21st, 2021
Variation: December 14th, 2021
Gene Model: December 14th, 2021
7 months agomdh8 malate dehydrogenase8:
 
GRMZM2G161245
Cao, HR et al. 2023. ZmNRT1.1B (ZmNPF6.6) determines nitrogen use efficiency via regulation of nitrate transport and signalling in maize. Plant Biotechnol J.     Reference: October 3rd, 2023
Gene Product: September 1st, 2003
Gene Model: June 20th, 2022
7 months agoskus1 skewed root growth similar1:
3.06
GRMZM2G157929
Xie, SY et al. 2023. Striking a growth-defense balance: Stress regulators that function in maize development. J Integr Plant Biol. :doi: 10.1111/jipb.13570.     Reference: October 3rd, 2023
Gene Product: May 29th, 2019
Variation: October 9th, 2020
Gene Model: September 28th, 2020
7 months agoidh6 isocitrate dehydrogenase6:
 
   Wei, NN et al. 2023. Characterization of the Isocitrate Dehydrogenase Gene Family and Their Response to Drought Stress in Maize Plants. 12:3466.     Reference: October 2nd, 2023
Gene Product: October 2nd, 2023
7 months agoidh4 isocitrate dehydrogenase4:
 
   Wei, NN et al. 2023. Characterization of the Isocitrate Dehydrogenase Gene Family and Their Response to Drought Stress in Maize Plants. 12:3466.     Reference: October 2nd, 2023
Gene Product: October 2nd, 2023
7 months agoidh5 isocitrate dehydrogenase5:
 
   Wei, NN et al. 2023. Characterization of the Isocitrate Dehydrogenase Gene Family and Their Response to Drought Stress in Maize Plants. 12:3466.     Reference: October 2nd, 2023
Gene Product: October 2nd, 2023
7 months agoidh9 isocitrate dehydrogenase9:
 
   Wei, NN et al. 2023. Characterization of the Isocitrate Dehydrogenase Gene Family and Their Response to Drought Stress in Maize Plants. 12:3466.     Reference: October 2nd, 2023
Gene Product: October 2nd, 2023
7 months agoidh1 isocitrate dehydrogenase1:
8.06 - 8.06
GRMZM2G432128
Wei, NN et al. 2023. Characterization of the Isocitrate Dehydrogenase Gene Family and Their Response to Drought Stress in Maize Plants. 12:3466.     Reference: October 2nd, 2023
Gene Product: October 2nd, 2023
Variation: September 1st, 2003
Gene Model: July 18th, 2014
7 months agoidh2 isocitrate dehydrogenase2:
6.07
GRMZM5G829778
Wei, NN et al. 2023. Characterization of the Isocitrate Dehydrogenase Gene Family and Their Response to Drought Stress in Maize Plants. 12:3466.     Reference: October 2nd, 2023
Gene Product: October 2nd, 2023
Variation: September 1st, 2003
Gene Model: July 18th, 2014
7 months agoidh8 isocitrate dehydrogenase8:
3.08
GRMZM2G033515
Wei, NN et al. 2023. Characterization of the Isocitrate Dehydrogenase Gene Family and Their Response to Drought Stress in Maize Plants. 12:3466.     Reference: October 2nd, 2023
Gene Product: October 2nd, 2023
Gene Model: April 22nd, 2022
7 months agoimd1 isopropylmalate dehydrogenase1:
1.03
GRMZM2G120857
Wei, NN et al. 2023. Characterization of the Isocitrate Dehydrogenase Gene Family and Their Response to Drought Stress in Maize Plants. 12:3466.     Reference: October 2nd, 2023
Gene Product: September 1st, 2003
Variation: May 14th, 2010
Gene Model: July 18th, 2014
7 months agostsl10 strictosidine synthase-like10:
 
   Gu, L et al. 2023. The Genome-Wide Identification, Characterization, and Expression Analysis of the Strictosidine Synthase-like Family in Maize (Zea mays L.). 10.3390/ijms241914733 Int J Mol Sci. 24:14733.     Reference: September 29th, 2023
Gene Product: September 29th, 2023
7 months agostsl5 strictosidine synthase-like5:
 
   Gu, L et al. 2023. The Genome-Wide Identification, Characterization, and Expression Analysis of the Strictosidine Synthase-like Family in Maize (Zea mays L.). 10.3390/ijms241914733 Int J Mol Sci. 24:14733.     Reference: September 29th, 2023
Gene Product: September 29th, 2023
7 months agostsl7 strictosidine synthase-like7:
 
   Gu, L et al. 2023. The Genome-Wide Identification, Characterization, and Expression Analysis of the Strictosidine Synthase-like Family in Maize (Zea mays L.). 10.3390/ijms241914733 Int J Mol Sci. 24:14733.     Reference: September 29th, 2023
Gene Product: September 29th, 2023
7 months agostsl9 strictosidine synthase-like9:
 
   Gu, L et al. 2023. The Genome-Wide Identification, Characterization, and Expression Analysis of the Strictosidine Synthase-like Family in Maize (Zea mays L.). 10.3390/ijms241914733 Int J Mol Sci. 24:14733.     Reference: September 29th, 2023
Gene Product: September 29th, 2023
7 months agostsl1 strictosidine synthase-like1:
 
   Gu, L et al. 2023. The Genome-Wide Identification, Characterization, and Expression Analysis of the Strictosidine Synthase-like Family in Maize (Zea mays L.). 10.3390/ijms241914733 Int J Mol Sci. 24:14733.     Reference: September 29th, 2023
Gene Product: September 29th, 2023
7 months agostsl2 strictosidine synthase-like2:
 
   Gu, L et al. 2023. The Genome-Wide Identification, Characterization, and Expression Analysis of the Strictosidine Synthase-like Family in Maize (Zea mays L.). 10.3390/ijms241914733 Int J Mol Sci. 24:14733.     Reference: September 29th, 2023
Gene Product: September 29th, 2023
7 months agostsl3 strictosidine synthase-like3:
 
   Gu, L et al. 2023. The Genome-Wide Identification, Characterization, and Expression Analysis of the Strictosidine Synthase-like Family in Maize (Zea mays L.). 10.3390/ijms241914733 Int J Mol Sci. 24:14733.     Reference: September 29th, 2023
Gene Product: September 29th, 2023
7 months agostsl6 strictosidine synthase-like6:
 
   Gu, L et al. 2023. The Genome-Wide Identification, Characterization, and Expression Analysis of the Strictosidine Synthase-like Family in Maize (Zea mays L.). 10.3390/ijms241914733 Int J Mol Sci. 24:14733.     Reference: September 29th, 2023
Gene Product: September 29th, 2023
7 months agostsl8 strictosidine synthase-like8:
 
   Gu, L et al. 2023. The Genome-Wide Identification, Characterization, and Expression Analysis of the Strictosidine Synthase-like Family in Maize (Zea mays L.). 10.3390/ijms241914733 Int J Mol Sci. 24:14733.     Reference: September 29th, 2023
Gene Product: September 29th, 2023
7 months agostsl11 strictosidine synthase-like11:
 
   Gu, L et al. 2023. The Genome-Wide Identification, Characterization, and Expression Analysis of the Strictosidine Synthase-like Family in Maize (Zea mays L.). 10.3390/ijms241914733 Int J Mol Sci. 24:14733.     Reference: September 29th, 2023
Gene Product: September 29th, 2023
7 months agostsl12 strictosidine synthase-like12:
 
   Gu, L et al. 2023. The Genome-Wide Identification, Characterization, and Expression Analysis of the Strictosidine Synthase-like Family in Maize (Zea mays L.). 10.3390/ijms241914733 Int J Mol Sci. 24:14733.     Reference: September 29th, 2023
Gene Product: September 29th, 2023
7 months agostsl13 strictosidine synthase-like13:
 
   Gu, L et al. 2023. The Genome-Wide Identification, Characterization, and Expression Analysis of the Strictosidine Synthase-like Family in Maize (Zea mays L.). 10.3390/ijms241914733 Int J Mol Sci. 24:14733.     Reference: September 29th, 2023
Gene Product: September 29th, 2023
7 months agostsl14 strictosidine synthase-like14:
 
   Gu, L et al. 2023. The Genome-Wide Identification, Characterization, and Expression Analysis of the Strictosidine Synthase-like Family in Maize (Zea mays L.). 10.3390/ijms241914733 Int J Mol Sci. 24:14733.     Reference: September 29th, 2023
Gene Product: September 29th, 2023
7 months agostsl15 strictosidine synthase-like15:
 
   Gu, L et al. 2023. The Genome-Wide Identification, Characterization, and Expression Analysis of the Strictosidine Synthase-like Family in Maize (Zea mays L.). 10.3390/ijms241914733 Int J Mol Sci. 24:14733.     Reference: September 29th, 2023
Gene Product: September 29th, 2023
7 months agostsl16 strictosidine synthase-like16:
 
   Gu, L et al. 2023. The Genome-Wide Identification, Characterization, and Expression Analysis of the Strictosidine Synthase-like Family in Maize (Zea mays L.). 10.3390/ijms241914733 Int J Mol Sci. 24:14733.     Reference: September 29th, 2023
Gene Product: September 29th, 2023
7 months agostsl17 strictosidine synthase-like17:
 
   Gu, L et al. 2023. The Genome-Wide Identification, Characterization, and Expression Analysis of the Strictosidine Synthase-like Family in Maize (Zea mays L.). 10.3390/ijms241914733 Int J Mol Sci. 24:14733.     Reference: September 29th, 2023
Gene Product: September 29th, 2023
7 months agostsl18 strictosidine synthase-like18:
 
   Gu, L et al. 2023. The Genome-Wide Identification, Characterization, and Expression Analysis of the Strictosidine Synthase-like Family in Maize (Zea mays L.). 10.3390/ijms241914733 Int J Mol Sci. 24:14733.     Reference: September 29th, 2023
Gene Product: September 29th, 2023
7 months agostsl19 strictosidine synthase-like19:
 
   Gu, L et al. 2023. The Genome-Wide Identification, Characterization, and Expression Analysis of the Strictosidine Synthase-like Family in Maize (Zea mays L.). 10.3390/ijms241914733 Int J Mol Sci. 24:14733.     Reference: September 29th, 2023
Gene Product: September 29th, 2023
7 months agocsu928  :
6.07
GRMZM2G154648
Veronica Santoro et al. 2023. Phosphorus Acquisition Efficiency and Transcriptomic Changes in Maize Plants Treated with Two Lignohumates Plants. 12:3291.     Reference: September 29th, 2023
Variation: March 21st, 2007
Gene Model: December 27th, 2019
7 months agocipk44 calcineurin B-like-interacting protein kinase44:
3.09
GRMZM2G181081
Veronica Santoro et al. 2023. Phosphorus Acquisition Efficiency and Transcriptomic Changes in Maize Plants Treated with Two Lignohumates Plants. 12:3291.     Reference: September 29th, 2023
Gene Product: August 25th, 2018
Gene Model: February 25th, 2019
7 months agogsht1 glutathione transporter1:
 
GRMZM2G421491
Veronica Santoro et al. 2023. Phosphorus Acquisition Efficiency and Transcriptomic Changes in Maize Plants Treated with Two Lignohumates Plants. 12:3291.     Reference: September 29th, 2023
Gene Product: April 23rd, 2013
Gene Model: April 23rd, 2013
7 months agoglk8 G2-like-transcription factor 8:
 
   Veronica Santoro et al. 2023. Phosphorus Acquisition Efficiency and Transcriptomic Changes in Maize Plants Treated with Two Lignohumates Plants. 12:3291.     Reference: September 29th, 2023
Variation: March 17th, 2021
7 months agonrx1 nucleoredoxin1:
1.04
GRMZM2G048324
Veronica Santoro et al. 2023. Phosphorus Acquisition Efficiency and Transcriptomic Changes in Maize Plants Treated with Two Lignohumates Plants. 12:3291.     Reference: September 29th, 2023
Gene Product: September 1st, 2003
Variation: September 11th, 2014
Gene Model: September 11th, 2014
7 months agondk1 nucleotide diphosphate kinase1:
7.03
   Veronica Santoro et al. 2023. Phosphorus Acquisition Efficiency and Transcriptomic Changes in Maize Plants Treated with Two Lignohumates Plants. 12:3291.     Reference: September 29th, 2023
Gene Product: December 23rd, 2019
Variation: September 9th, 2014
7 months agoc3h32 C3H-transcription factor32:
7.04
GRMZM5G842019
Xiaoling Ma et al. 2023. Expression of maize OXS2a in Arabidopsis stunts plant growth but enhances heat tolerance Plant Sci. :doi: 10.1016/j.plantsci.2023.111877.     Reference: September 29th, 2023
Variation: July 29th, 2004
Gene Model: September 11th, 2018
7 months agoGRMZM2G095400  :
 
GRMZM2G095400
Veronica Santoro et al. 2023. Phosphorus Acquisition Efficiency and Transcriptomic Changes in Maize Plants Treated with Two Lignohumates Plants. 12:3291.     Reference: September 29th, 2023
Gene Product: September 16th, 2019
Gene Model: September 16th, 2019
7 months agoipp1 inositol-x-phosphate phosphatase1:
 
GRMZM2G029731
Veronica Santoro et al. 2023. Phosphorus Acquisition Efficiency and Transcriptomic Changes in Maize Plants Treated with Two Lignohumates Plants. 12:3291.     Reference: September 29th, 2023
Gene Product: December 17th, 2019
Gene Model: December 17th, 2019
7 months agorbp1 ran-binding protein1:
 
AC213884.3_FG001
Veronica Santoro et al. 2023. Phosphorus Acquisition Efficiency and Transcriptomic Changes in Maize Plants Treated with Two Lignohumates Plants. 12:3291.     Reference: September 29th, 2023
Gene Product: January 7th, 2020
Gene Model: January 7th, 2020
7 months agodrg6 dark response gene6:
 
GRMZM2G112538
Jiang, LY et al. 2023. ZmMPK6-1 positively regulates maize resistance to E. turcicum through enhancing ZmERF061 activity J Plant Interactions. :doi: 10.1080/17429145.2023.2261772.     Reference: September 29th, 2023
Gene Product: December 12th, 2022
Gene Model: June 6th, 2020
7 months agoGRMZM2G355906  :
 
GRMZM2G355906
Veronica Santoro et al. 2023. Phosphorus Acquisition Efficiency and Transcriptomic Changes in Maize Plants Treated with Two Lignohumates Plants. 12:3291.     Reference: September 29th, 2023
Gene Product: December 9th, 2021
Gene Model: December 6th, 2021
7 months agoIDP683  :
6.06
GRMZM2G163468
Veronica Santoro et al. 2023. Phosphorus Acquisition Efficiency and Transcriptomic Changes in Maize Plants Treated with Two Lignohumates Plants. 12:3291.     Reference: September 29th, 2023
Variation: March 31st, 2005
Gene Model: July 3rd, 2021
7 months agoIDP4038  :
9.02
AC231745.1_FG003
Veronica Santoro et al. 2023. Phosphorus Acquisition Efficiency and Transcriptomic Changes in Maize Plants Treated with Two Lignohumates Plants. 12:3291.     Reference: September 29th, 2023
Variation: March 31st, 2005
Gene Model: July 14th, 2021
7 months agodzr1 zein-protein regulator:
4.01 - 4.02
   Taylor D Hintch et al. 2023. Development of maize inbred lines with elevated grain methionine concentration from a high methionine population Crop Sci. :doi: 10.1002/csc2.20983.     Reference: September 28th, 2023
Variation: August 27th, 2009
7 months agow14 white seedling14:
6.05 - 6.06
   Wang, D et al. 2010. Plant J 63:939-951     Reference: January 18th, 2023
Variation: September 27th, 2023
7 months agoumc1716  :
4.11
GRMZM2G119393
Sa, KJ et al. 2023. Genetic Variation and Association Analysis of Elite Waxy Maize Inbred Lines in South Korea Plant Mol Biol Rep. :DOI: 10.1007/s11105-023-01405-6.     Reference: September 27th, 2023
Variation: September 1st, 2003
Gene Model: March 7th, 2021
7 months agogdcp1 glycine decarboxylase1:
10.01
GRMZM2G104310
Huang, C-F et al. 2023. C4 leaf development and evolution. Curr Opin Plant Biol. :doi: 10.1016/j.pbi.2023.102454.     Reference: September 25th, 2023
Gene Product: September 1st, 2003
Variation: July 18th, 2021
Gene Model: October 6th, 2015
7 months agoant1 adenine nucleotide translocator1:
5.06
GRMZM5G837108
Huang, C-F et al. 2023. C4 leaf development and evolution. Curr Opin Plant Biol. :doi: 10.1016/j.pbi.2023.102454.     Reference: September 25th, 2023
Gene Product: September 1st, 2003
Variation: July 31st, 2012
Gene Model: June 2nd, 2014
7 months agobr1 brachytic1:
1.07
   Huang, C-F et al. 2023. C4 leaf development and evolution. Curr Opin Plant Biol. :doi: 10.1016/j.pbi.2023.102454.     Reference: September 25th, 2023
Gene Product: July 25th, 2017
Variation: September 22nd, 2023
7 months agomdh1 malate dehydrogenase1:
8.03
   Huang, C-F et al. 2023. C4 leaf development and evolution. Curr Opin Plant Biol. :doi: 10.1016/j.pbi.2023.102454.     Reference: September 25th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
7 months agoppt1 plastid phosphate/phosphoenolpyruvate translocator1:
2.06
GRMZM2G047404
Huang, C-F et al. 2023. C4 leaf development and evolution. Curr Opin Plant Biol. :doi: 10.1016/j.pbi.2023.102454.     Reference: September 25th, 2023
Gene Product: September 1st, 2003
Gene Model: October 9th, 2014
7 months agoabi17 ABI3-VP1-transcription factor 17:
 
   Huang, C-F et al. 2023. C4 leaf development and evolution. Curr Opin Plant Biol. :doi: 10.1016/j.pbi.2023.102454.     Reference: September 25th, 2023
Gene Product: January 29th, 2022
7 months agogras58 GRAS-transcription factor 58:
 
   Huang, C-F et al. 2023. C4 leaf development and evolution. Curr Opin Plant Biol. :doi: 10.1016/j.pbi.2023.102454.     Reference: September 25th, 2023
Gene Product: June 24th, 2019
Variation: April 9th, 2014
7 months agotcptf40 TCP-transcription factor 40:
 
   Huang, C-F et al. 2023. C4 leaf development and evolution. Curr Opin Plant Biol. :doi: 10.1016/j.pbi.2023.102454.     Reference: September 25th, 2023
Gene Product: September 27th, 2019
7 months agotcptf5 TCP-transcription factor 5:
 
   Huang, C-F et al. 2023. C4 leaf development and evolution. Curr Opin Plant Biol. :doi: 10.1016/j.pbi.2023.102454.     Reference: September 25th, 2023
Gene Product: September 27th, 2019
7 months agosweet3a sugars will eventually be exported transporter3a:
8.04
GRMZM2G179679
Erick Amombo et al. 2023. Insights on the SWEET Gene Role in Soluble Sugar Accumulation via the CO2 Fixation Pathway in Forage Maize Under Salt Stress J Plant Growth Reg. :doi: 10.1007/s00344-023-11112-x.     Reference: September 25th, 2023
Gene Product: November 4th, 2015
Gene Model: September 19th, 2018
7 months agosweet4b sugars will eventually be exported transporter4b:
5.04
GRMZM2G144581
Erick Amombo et al. 2023. Insights on the SWEET Gene Role in Soluble Sugar Accumulation via the CO2 Fixation Pathway in Forage Maize Under Salt Stress J Plant Growth Reg. :doi: 10.1007/s00344-023-11112-x.     Reference: September 25th, 2023
Gene Product: November 4th, 2015
Gene Model: November 3rd, 2015
7 months agotpt1 triose phosphate translocator1:
 
   Huang, C-F et al. 2023. C4 leaf development and evolution. Curr Opin Plant Biol. :doi: 10.1016/j.pbi.2023.102454.     Reference: September 25th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
7 months agoscro1 scarecrow1:
4.08
GRMZM2G131516
Huang, C-F et al. 2023. C4 leaf development and evolution. Curr Opin Plant Biol. :doi: 10.1016/j.pbi.2023.102454.     Reference: September 25th, 2023
Gene Product: June 24th, 2019
Variation: June 24th, 2019
Gene Model: November 11th, 2012
7 months agoabph2 aberrant phyllotaxy2:
 
   Awale, P et al. 2023. Hormonal regulation of inflorescence and intercalary meristems in grasses. Curr Opin Plant Biol. :doi: 10.1016/j.pbi.2023.102451.     Reference: September 25th, 2023
Gene Product: January 21st, 2021
Variation: January 27th, 2015
7 months agosweet6b sugars will eventually be exported transporter6b:
 
GRMZM2G416965
Erick Amombo et al. 2023. Insights on the SWEET Gene Role in Soluble Sugar Accumulation via the CO2 Fixation Pathway in Forage Maize Under Salt Stress J Plant Growth Reg. :doi: 10.1007/s00344-023-11112-x.     Reference: September 25th, 2023
Gene Product: November 4th, 2015
Gene Model: November 3rd, 2015
7 months agosweet12b sugars will eventually be exported transporter12b:
 
GRMZM2G099609
Erick Amombo et al. 2023. Insights on the SWEET Gene Role in Soluble Sugar Accumulation via the CO2 Fixation Pathway in Forage Maize Under Salt Stress J Plant Growth Reg. :doi: 10.1007/s00344-023-11112-x.     Reference: September 25th, 2023
Gene Product: November 4th, 2015
Gene Model: November 3rd, 2015
7 months agosweet17b sugars will eventually be exported transporter17b:
 
GRMZM2G111926
Erick Amombo et al. 2023. Insights on the SWEET Gene Role in Soluble Sugar Accumulation via the CO2 Fixation Pathway in Forage Maize Under Salt Stress J Plant Growth Reg. :doi: 10.1007/s00344-023-11112-x.     Reference: September 25th, 2023
Gene Product: November 4th, 2015
Variation: March 18th, 2021
Gene Model: November 3rd, 2015
7 months agosweet16 sugars will eventually be exported transporter16:
 
GRMZM2G107597
Erick Amombo et al. 2023. Insights on the SWEET Gene Role in Soluble Sugar Accumulation via the CO2 Fixation Pathway in Forage Maize Under Salt Stress J Plant Growth Reg. :doi: 10.1007/s00344-023-11112-x.     Reference: September 25th, 2023
Gene Product: November 4th, 2015
Gene Model: November 3rd, 2015
7 months agome8 NAD-dependent malic enzyme8:
 
GRMZM2G085747
Huang, C-F et al. 2023. C4 leaf development and evolution. Curr Opin Plant Biol. :doi: 10.1016/j.pbi.2023.102454.     Reference: September 25th, 2023
Gene Product: June 4th, 2020
Gene Model: June 4th, 2020
7 months agosweet6a sugars will eventually be exported transporter6a:
3.09
GRMZM2G157675
Erick Amombo et al. 2023. Insights on the SWEET Gene Role in Soluble Sugar Accumulation via the CO2 Fixation Pathway in Forage Maize Under Salt Stress J Plant Growth Reg. :doi: 10.1007/s00344-023-11112-x.     Reference: September 25th, 2023
Gene Product: November 4th, 2015
Variation: March 31st, 2005
Gene Model: November 3rd, 2015
7 months agotil1 temperature-induced lipocalin1:
5.05
GRMZM2G072034
Huang, C-F et al. 2023. C4 leaf development and evolution. Curr Opin Plant Biol. :doi: 10.1016/j.pbi.2023.102454.     Reference: September 25th, 2023
Gene Product: May 20th, 2020
Gene Model: May 20th, 2020
7 months agosig1 sigma70-like-transcription factor 1:
1.03
GRMZM2G003182
Huang, C-F et al. 2023. C4 leaf development and evolution. Curr Opin Plant Biol. :doi: 10.1016/j.pbi.2023.102454.     Reference: September 25th, 2023
Gene Product: December 24th, 2019
Gene Model: October 16th, 2020
7 months agopbac3 proteasome biogenesis-associated chaperone3:
 
   Long, Y et al. 2023. Molecular mechanisms controlling grain size and weight and their biotechnological breeding applications in maize and other cereal crops J Adv Res. :doi: 10.1016/j.jare.2023.09.016.     Reference: September 24th, 2023
Gene Product: June 13th, 2019
7 months agoarftf20 ARF-transcription factor 20:
5.03
   Zhenwei Yan et al. 2023. The ZmbHLH32-ZmIAA9-ZmARF1 module regulates salt tolerance in maize. Int J Biol Macromol. :126978.     Reference: September 24th, 2023
Gene Product: January 29th, 2022
7 months agobt1 brittle endosperm1:
5.04
   Long, Y et al. 2023. Molecular mechanisms controlling grain size and weight and their biotechnological breeding applications in maize and other cereal crops J Adv Res. :doi: 10.1016/j.jare.2023.09.016.     Reference: September 24th, 2023
Gene Product: February 24th, 2015
Variation: December 14th, 2020
7 months agodek5 defective kernel5:
3.02
GRMZM2G083374
Long, Y et al. 2023. Molecular mechanisms controlling grain size and weight and their biotechnological breeding applications in maize and other cereal crops J Adv Res. :doi: 10.1016/j.jare.2023.09.016.     Reference: September 24th, 2023
Gene Product: June 28th, 2019
Variation: June 27th, 2019
Gene Model: June 27th, 2019
7 months agoo5 opaque endosperm5:
7.02
GRMZM2G142873
Long, Y et al. 2023. Molecular mechanisms controlling grain size and weight and their biotechnological breeding applications in maize and other cereal crops J Adv Res. :doi: 10.1016/j.jare.2023.09.016.     Reference: September 24th, 2023
Gene Product: June 17th, 2011
Variation: August 29th, 2011
Gene Model: September 19th, 2011
7 months agoscl1 scarecrow-like1:
8.03
GRMZM2G023872
Long, Y et al. 2023. Molecular mechanisms controlling grain size and weight and their biotechnological breeding applications in maize and other cereal crops J Adv Res. :doi: 10.1016/j.jare.2023.09.016.     Reference: September 24th, 2023
Gene Product: June 24th, 2019
Variation: August 26th, 2015
Gene Model: August 26th, 2015
7 months agoemb2 embryo specific2:
9.00 - 9.03
GRMZM5G884466
Long, Y et al. 2023. Molecular mechanisms controlling grain size and weight and their biotechnological breeding applications in maize and other cereal crops J Adv Res. :doi: 10.1016/j.jare.2023.09.016.     Reference: September 24th, 2023
Gene Product: September 15th, 2012
Variation: September 8th, 2012
Gene Model: September 7th, 2012
7 months agoemb12 embryo specific12:
1.00 - 1.04
   Long, Y et al. 2023. Molecular mechanisms controlling grain size and weight and their biotechnological breeding applications in maize and other cereal crops J Adv Res. :doi: 10.1016/j.jare.2023.09.016.     Reference: September 24th, 2023
Variation: March 8th, 2013
7 months agomcsf1 mitochondrial CAF-like splicing factor1:
 
GRMZM2G087395
Long, Y et al. 2023. Molecular mechanisms controlling grain size and weight and their biotechnological breeding applications in maize and other cereal crops J Adv Res. :doi: 10.1016/j.jare.2023.09.016.     Reference: September 24th, 2023
Gene Product: July 23rd, 2009
Variation: July 1st, 2019
Gene Model: July 1st, 2019
7 months agovps29 vacuolar protein sorting29:
 
GRMZM2G068489
Long, Y et al. 2023. Molecular mechanisms controlling grain size and weight and their biotechnological breeding applications in maize and other cereal crops J Adv Res. :doi: 10.1016/j.jare.2023.09.016.     Reference: September 24th, 2023
Gene Product: March 3rd, 2023
Variation: September 26th, 2019
Gene Model: September 26th, 2019
7 months agotrx1 thioredoxin1:
 
GRMZM2G166877
Long, Y et al. 2023. Molecular mechanisms controlling grain size and weight and their biotechnological breeding applications in maize and other cereal crops J Adv Res. :doi: 10.1016/j.jare.2023.09.016.     Reference: September 24th, 2023
Gene Product: August 31st, 2020
Gene Model: August 31st, 2020
7 months agomn6 miniature seed6:
6.05
GRMZM2G035526
Long, Y et al. 2023. Molecular mechanisms controlling grain size and weight and their biotechnological breeding applications in maize and other cereal crops J Adv Res. :doi: 10.1016/j.jare.2023.09.016.     Reference: September 24th, 2023
Gene Product: December 21st, 2020
Variation: December 21st, 2020
Gene Model: January 8th, 2020
7 months agolimtf4 LIM-transcription factor 4:
1.05
GRMZM2G099328
Long, Y et al. 2023. Molecular mechanisms controlling grain size and weight and their biotechnological breeding applications in maize and other cereal crops J Adv Res. :doi: 10.1016/j.jare.2023.09.016.   AT4G36860 (TAIR) Reference: September 24th, 2023
Gene Product: December 16th, 2019
Variation: May 31st, 2017
Gene Model: May 31st, 2017
7 months agomtl5 metallothionein5:
6.01
GRMZM2G430807
Leyla Nazari et al. 2023. Integrated transcriptomic meta-analysis and comparative artificial intelligence models in maize under biotic stress Sci. Rep.. :doi: 10.1038/s41598-023-42984-4.     Reference: September 23rd, 2023
Gene Product: September 1st, 2003
Gene Model: August 20th, 2018
7 months agomrpa3 multidrug resistance-associated protein3:
9.02
   Matthes, MS et al. 2023. Enhancement of developmental defects in the boron‐deficient maize mutant tassel‐less1 by reduced auxin levels J Plant Nutr Soil Sci. :doi: 10.1002/jpln.202300155.     Reference: September 23rd, 2023
Gene Product: July 11th, 2019
Variation: November 11th, 2009
7 months agoaas1 auxin amido synthetase1:
 
GRMZM2G068701
Matthes, MS et al. 2023. Enhancement of developmental defects in the boron‐deficient maize mutant tassel‐less1 by reduced auxin levels J Plant Nutr Soil Sci. :doi: 10.1002/jpln.202300155.     Reference: September 23rd, 2023
Gene Product: October 21st, 2019
Gene Model: October 21st, 2019
7 months agoprp9 pathogenesis-related protein9:
 
GRMZM2G075283
Leyla Nazari et al. 2023. Integrated transcriptomic meta-analysis and comparative artificial intelligence models in maize under biotic stress Sci. Rep.. :doi: 10.1038/s41598-023-42984-4.     Reference: September 23rd, 2023
Gene Product: December 12th, 2022
Gene Model: June 16th, 2020
7 months agomdh9 malate dehydrogenase9:
 
   Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: September 1st, 2003
7 months agomate39 multidrug and toxic compound extrusion39:
 
   Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: August 17th, 2015
7 months agoppr374 pentatricopeptide repeat protein374:
 
   Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: December 27th, 2016
7 months agoknox1 knotted related homeobox1:
1.01
GRMZM2G159431
Wesley Neher et al. 2023. The maize preligule band is subdivided into distinct domains with contrasting cellular properties prior to ligule outgrowth. Development. :doi: 10.1242/dev.201608.     Reference: September 22nd, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: March 7th, 2012
7 months agoask1 aspartate kinase1:
1.12
GRMZM2G024686
Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: September 1st, 2003
Variation: September 10th, 2010
Gene Model: October 21st, 2020
7 months agocsu582  :
7.00
GRMZM2G120652
Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Variation: September 1st, 2003
Gene Model: September 4th, 2018
7 months agocgs1 cystathionine gamma-synthase1:
9.04
   Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: September 1st, 2003
Variation: November 14th, 2012
7 months agoumc1137  :
9.07
GRMZM2G178106
Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Variation: September 1st, 2003
Gene Model: March 7th, 2018
7 months agoumc1254  :
1.04
GRMZM2G045135
He, KH et al. 2023. QTL mapping and transcriptome analysis identify candidate genes influencing water–nitrogen interaction in maize Crop J. :doi: 10.1016/j.cj.2023.09.001.     Reference: September 22nd, 2023
Variation: October 4th, 2016
Gene Model: October 4th, 2016
7 months agoabi33 ABI3-VP1-transcription factor 33:
 
GRMZM2G065538
Chang, YM et al. 2019. Comparative transcriptomics method to infer gene coexpression networks and its applications to maize and rice leaf transcriptomes. Proc Natl Acad Sci, USA. 116:3091-3099.     Reference: September 22nd, 2023
Gene Product: January 29th, 2022
Gene Model: June 11th, 2018
7 months agoarftf8 ARF-transcription factor 8:
 
   Chang, YM et al. 2019. Comparative transcriptomics method to infer gene coexpression networks and its applications to maize and rice leaf transcriptomes. Proc Natl Acad Sci, USA. 116:3091-3099.     Reference: September 22nd, 2023
Gene Product: January 29th, 2022
7 months agorz672a(cgs)  :
1.04
   Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: September 1st, 2003
7 months agoaaap57 amino acid/auxin permease57:
8.08
GRMZM2G036448
He, KH et al. 2023. QTL mapping and transcriptome analysis identify candidate genes influencing water–nitrogen interaction in maize Crop J. :doi: 10.1016/j.cj.2023.09.001.     Reference: September 22nd, 2023
Gene Product: March 31st, 2021
Gene Model: September 24th, 2018
7 months agoakh1 aspartate kinase-homoserine dehydrogenase1:
4.05
GRMZM2G365423
Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: September 1st, 2003
Variation: September 10th, 2010
Gene Model: May 9th, 2018
7 months agoakh2 aspartate kinase homoserine dehydrogenase2:
2.06
   Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
7 months agoAY110365  :
10.04
GRMZM2G128319
Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Variation: July 29th, 2004
Gene Model: January 12th, 2018
7 months agosat1 serine acetyltransferase1:
8.06
GRMZM2G069203
Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: December 31st, 2014
Variation: March 19th, 2021
Gene Model: December 31st, 2014
7 months agosat2 serine acetyltransferase2:
1.02
GRMZM2G013430
Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: December 31st, 2014
Variation: July 21st, 2008
Gene Model: December 31st, 2014
7 months agosat3 serine acetyltransferase3:
6.06
GRMZM5G816110
Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: December 31st, 2014
Variation: March 19th, 2021
Gene Model: December 31st, 2014
7 months agoaprl1 adenosine 5'-phosphosulfate reductase-like1:
7.03
AC189750.4_FG004
Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: October 10th, 2017
Variation: January 13th, 2016
Gene Model: December 18th, 2015
7 months agoaprl2 adenosine 5'-phosphosulfate reductase-like2:
2.07
GRMZM2G087254
Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: October 10th, 2017
Variation: December 23rd, 2015
Gene Model: December 18th, 2015
7 months agoaprl3 adenosine 5'-phosphosulfate reductase-like3:
4.08
GRMZM2G042582
Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: October 10th, 2017
Variation: December 31st, 2015
Gene Model: December 18th, 2015
7 months agoaprl4 adenosine 5'-phosphosulfate reductase-like4:
5.07
GRMZM2G159535
Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: October 10th, 2017
Variation: December 23rd, 2015
Gene Model: December 18th, 2015
7 months agoaprl5 adenosine 5'-phosphosulfate reductase-like5:
1.07
GRMZM2G085249
Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: October 10th, 2017
Variation: December 23rd, 2015
Gene Model: December 18th, 2015
7 months agoaprl7 adenosine 5'-phosphosulfate reductase-like7:
3.05
GRMZM2G155073
Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: October 10th, 2017
Variation: December 30th, 2015
Gene Model: December 18th, 2015
7 months agoaprl8 adenosine 5'-phosphosulfate reductase-like8:
1.11
GRMZM2G046231
Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: October 10th, 2017
Variation: December 23rd, 2015
Gene Model: December 18th, 2015
7 months agoaprl9 adenosine 5'-phosphosulfate reductase-like9:
5.01
GRMZM2G025248
Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: October 10th, 2017
Variation: January 5th, 2016
Gene Model: December 18th, 2015
7 months agoelip2 early light inducible protein2:
 
GRMZM2G425728
Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: July 27th, 2013
Gene Model: July 27th, 2013
7 months agotrps4 trehalose-6-phosphate synthase4:
 
GRMZM2G008226
Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: October 3rd, 2020
Gene Model: September 15th, 2013
7 months agophos4 phosphate transporter4:
 
GRMZM2G064657
He, KH et al. 2023. QTL mapping and transcriptome analysis identify candidate genes influencing water–nitrogen interaction in maize Crop J. :doi: 10.1016/j.cj.2023.09.001.   AT1G68740 (TAIR) Reference: September 22nd, 2023
Gene Product: February 27th, 2016
Gene Model: February 27th, 2016
7 months agoapx9 ascorbate peroxidase9:
 
GRMZM2G460406
He, KH et al. 2023. QTL mapping and transcriptome analysis identify candidate genes influencing water–nitrogen interaction in maize Crop J. :doi: 10.1016/j.cj.2023.09.001.     Reference: September 22nd, 2023
Gene Product: October 15th, 2020
Gene Model: October 15th, 2020
7 months agosat4 serine acetyltransferase4:
 
GRMZM2G048740
Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: December 31st, 2014
Variation: March 19th, 2021
Gene Model: March 19th, 2021
7 months agocipk14 calcineurin B-like-interacting protein kinase14:
 
GRMZM2G125001
He, KH et al. 2023. QTL mapping and transcriptome analysis identify candidate genes influencing water–nitrogen interaction in maize Crop J. :doi: 10.1016/j.cj.2023.09.001.     Reference: September 22nd, 2023
Gene Product: August 25th, 2018
Gene Model: September 8th, 2021
7 months agoIDP603  :
1.11
GRMZM2G024267
Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Variation: March 31st, 2005
Gene Model: February 16th, 2019
7 months agoaprl6 adenosine 5'-phosphosulfate reductase6:
10.03
GRMZM2G141848
Veena Devi et al. 2023. Genetic and molecular understanding for the development of methionine-rich maize: a holistic approach Frontiers in Plant Science. 14:1249230.     Reference: September 22nd, 2023
Gene Product: October 10th, 2017
Variation: December 23rd, 2015
Gene Model: January 24th, 2015
7 months agosfp3 sulfate transporter3:
1.02
GRMZM2G042171
He, KH et al. 2023. QTL mapping and transcriptome analysis identify candidate genes influencing water–nitrogen interaction in maize Crop J. :doi: 10.1016/j.cj.2023.09.001.     Reference: September 22nd, 2023
Gene Product: May 8th, 2020
Gene Model: November 13th, 2017
7 months agowipf2 WAS/WASL interacting protein family, member 2:
 
   Zhang, ZH et al. 2023. ZmCCT regulates drought tolerance in maize by interacting with ZmFra a 1, E3 ligase ZmWIPF2 and auxin response factor ZmAux/IAA8. J Exp Bot. :doi: 10.1093/jxb/erad372.     Reference: September 21st, 2023
Gene Product: September 21st, 2023
7 months agozmm7 Zea mays MADS7:
7.03
   Shen, XM et al. 2023. Dynamic transcriptome landscape of developing maize ear Plant J. :doi: 10.1111/tpj.16457.     Reference: September 21st, 2023
Gene Product: September 10th, 2021
Variation: August 8th, 2008
7 months agozmm8 Zea mays MADS8:
9.06
GRMZM2G102161
Shen, XM et al. 2023. Dynamic transcriptome landscape of developing maize ear Plant J. :doi: 10.1111/tpj.16457.     Reference: September 21st, 2023
Gene Product: September 10th, 2021
Variation: September 10th, 2021
Gene Model: September 10th, 2021
7 months agoabph1 aberrant phyllotaxy1:
2.03
   Shen, XM et al. 2023. Dynamic transcriptome landscape of developing maize ear Plant J. :doi: 10.1111/tpj.16457.     Reference: September 21st, 2023
Gene Product: April 20th, 2009
Variation: July 4th, 2009
7 months agospx11 SPX domain-containing membrane protein11:
10.04
GRMZM2G018018
Luo, BW et al. 2023. Chromatin remodeling analysis reveals the RdDM pathway responds to low-phosphorus stress in maize. Plant J. :doi: 10.1111/tpj.16468.     Reference: September 21st, 2023
Gene Product: October 9th, 2021
Gene Model: July 21st, 2021
7 months agozmm14 Zea mays MADS14:
1.02
GRMZM2G099522
Shen, XM et al. 2023. Dynamic transcriptome landscape of developing maize ear Plant J. :doi: 10.1111/tpj.16457.     Reference: September 21st, 2023
Variation: August 28th, 2013
Gene Model: August 14th, 2017
7 months agozmm18 Zea mays MADS18:
8.03
GRMZM5G805387
Shen, XM et al. 2023. Dynamic transcriptome landscape of developing maize ear Plant J. :doi: 10.1111/tpj.16457.     Reference: September 21st, 2023
Gene Product: September 1st, 2003
Variation: August 27th, 2013
Gene Model: July 2nd, 2014
7 months agozmm29 Zea mays MADS29:
8.03
GRMZM2G152862
Shen, XM et al. 2023. Dynamic transcriptome landscape of developing maize ear Plant J. :doi: 10.1111/tpj.16457.     Reference: September 21st, 2023
Gene Product: September 1st, 2003
Variation: August 27th, 2013
Gene Model: July 2nd, 2014
7 months agoknox7 knotted related homeobox7:
4.09 - 4.10
GRMZM2G433591
Shen, XM et al. 2023. Dynamic transcriptome landscape of developing maize ear Plant J. :doi: 10.1111/tpj.16457.     Reference: September 21st, 2023
Gene Product: September 1st, 2003
Variation: August 12th, 2014
Gene Model: August 12th, 2014
7 months agozag4 zea agamous4:
3.03
GRMZM2G471089
Shen, XM et al. 2023. Dynamic transcriptome landscape of developing maize ear Plant J. :doi: 10.1111/tpj.16457.     Reference: September 21st, 2023
Gene Product: September 10th, 2021
Variation: September 1st, 2003
Gene Model: April 1st, 2019
7 months agobde1 bearded-ear1:
5.06
   Shen, XM et al. 2023. Dynamic transcriptome landscape of developing maize ear Plant J. :doi: 10.1111/tpj.16457.   AT2G45650 (TAIR) Reference: September 21st, 2023
Gene Product: April 1st, 2011
Variation: October 5th, 2009
7 months agozag5 zea agamous5:
4.06 - 4.06
   Shen, XM et al. 2023. Dynamic transcriptome landscape of developing maize ear Plant J. :doi: 10.1111/tpj.16457.   AT2G45650 (TAIR) Reference: September 21st, 2023
Gene Product: September 10th, 2021
Variation: October 7th, 2009
7 months agozag1 Zea AGAMOUS homolog1:
6.05
   Shen, XM et al. 2023. Dynamic transcriptome landscape of developing maize ear Plant J. :doi: 10.1111/tpj.16457.     Reference: September 21st, 2023
Gene Product: September 1st, 2003
Variation: January 2nd, 2015
7 months agotsh1 tassel sheath1:
6.07
   Shen, XM et al. 2023. Dynamic transcriptome landscape of developing maize ear Plant J. :doi: 10.1111/tpj.16457.     Reference: September 21st, 2023
Gene Product: November 14th, 2022
Variation: October 6th, 2011
7 months agoufg25  :
5.01
GRMZM2G094900
Shen, XM et al. 2023. Dynamic transcriptome landscape of developing maize ear Plant J. :doi: 10.1111/tpj.16457.     Reference: September 21st, 2023
Variation: October 15th, 2019
Gene Model: June 16th, 2018
7 months agozag6 agamous-like6:
 
GRMZM2G026223
Shen, XM et al. 2023. Dynamic transcriptome landscape of developing maize ear Plant J. :doi: 10.1111/tpj.16457.     Reference: September 21st, 2023
Variation: June 9th, 2014
Gene Model: June 9th, 2014
7 months agoapx10 ascorbate peroxidase10:
 
GRMZM2G120517
Shen, XM et al. 2023. Dynamic transcriptome landscape of developing maize ear Plant J. :doi: 10.1111/tpj.16457.     Reference: September 21st, 2023
Gene Product: October 15th, 2020
Gene Model: October 15th, 2020
7 months agospx3 SPX domain-containing membrane protein3:
 
GRMZM2G122108
Luo, BW et al. 2023. Chromatin remodeling analysis reveals the RdDM pathway responds to low-phosphorus stress in maize. Plant J. :doi: 10.1111/tpj.16468.     Reference: September 21st, 2023
Gene Product: October 9th, 2021
Gene Model: October 9th, 2021
7 months agospx10 SPX domain-containing membrane protein10:
 
GRMZM2G050329
Luo, BW et al. 2023. Chromatin remodeling analysis reveals the RdDM pathway responds to low-phosphorus stress in maize. Plant J. :doi: 10.1111/tpj.16468.     Reference: September 21st, 2023
Gene Product: October 9th, 2021
Gene Model: October 9th, 2021
7 months agospx6 SPX domain-containing membrane protein6:
 
GRMZM2G083655
Luo, BW et al. 2023. Chromatin remodeling analysis reveals the RdDM pathway responds to low-phosphorus stress in maize. Plant J. :doi: 10.1111/tpj.16468.     Reference: September 21st, 2023
Gene Product: October 9th, 2021
Gene Model: October 9th, 2021
7 months agoauxrp1 auxin-regulated protein1:
 
GRMZM2G063298
Liu, HH et al. 2023. Isolation and Identification of the Causal Agent of Top Rot and the Genetic Architecture of Resistance in Maize. Plant Dis. :PDIS02230276RE.     Reference: September 20th, 2023
Variation: October 30th, 2018
Gene Model: October 30th, 2018
7 months agosbt10 subtilisin10:
 
   Hou, QC et al. 2023. A systematic analysis of the subtilase gene family and expression and subcellular localization investigation of anther-specific members in maize Plant Physiol Biochem. 203:108041.     Reference: September 19th, 2023
Gene Product: November 11th, 2016
7 months agosbt20 subtilisin20:
 
   Hou, QC et al. 2023. A systematic analysis of the subtilase gene family and expression and subcellular localization investigation of anther-specific members in maize Plant Physiol Biochem. 203:108041.     Reference: September 19th, 2023
Gene Product: November 11th, 2016
7 months agosbt23 subtilisin23:
 
   Hou, QC et al. 2023. A systematic analysis of the subtilase gene family and expression and subcellular localization investigation of anther-specific members in maize Plant Physiol Biochem. 203:108041.     Reference: September 19th, 2023
Gene Product: November 11th, 2016
7 months agosbt37 subtilisin37:
 
   Hou, QC et al. 2023. A systematic analysis of the subtilase gene family and expression and subcellular localization investigation of anther-specific members in maize Plant Physiol Biochem. 203:108041.     Reference: September 19th, 2023
Gene Product: November 11th, 2016
7 months agoarftf22 ARF-transcription factor 22:
 
   Eliandro Espindula et al. 2023. Effects on gene expression during maize-Azospirillum interaction in the presence of a plant-specific inhibitor of indole-3-acetic acid production. Genet Mol Biol. 46:e20230100.     Reference: September 19th, 2023
Gene Product: January 29th, 2022
7 months agoarftf24 ARF-transcription factor 24:
 
   Eliandro Espindula et al. 2023. Effects on gene expression during maize-Azospirillum interaction in the presence of a plant-specific inhibitor of indole-3-acetic acid production. Genet Mol Biol. 46:e20230100.     Reference: September 19th, 2023
Gene Product: January 29th, 2022
Variation: March 3rd, 2023
7 months agotlc17 TRAM/LAG/CRN8 17:
8.08
GRMZM5G825226
Eliandro Espindula et al. 2023. Effects on gene expression during maize-Azospirillum interaction in the presence of a plant-specific inhibitor of indole-3-acetic acid production. Genet Mol Biol. 46:e20230100.     Reference: September 19th, 2023
Gene Product: November 4th, 2019
Gene Model: September 2nd, 2018
7 months agocyc1 cyclin1:
8.05
   Eliandro Espindula et al. 2023. Effects on gene expression during maize-Azospirillum interaction in the presence of a plant-specific inhibitor of indole-3-acetic acid production. Genet Mol Biol. 46:e20230100.     Reference: September 19th, 2023
Gene Product: June 26th, 2009
Variation: September 25th, 2007
7 months agocki4 cyclin-dependent kinase inhibitor4:
 
GRMZM2G358931
Eliandro Espindula et al. 2023. Effects on gene expression during maize-Azospirillum interaction in the presence of a plant-specific inhibitor of indole-3-acetic acid production. Genet Mol Biol. 46:e20230100.     Reference: September 19th, 2023
Gene Product: March 8th, 2017
Variation: May 26th, 2017
Gene Model: March 7th, 2017
7 months agotlc9 TRAM/LAG/CRN8 9:
 
AC210013.4_FG012
Eliandro Espindula et al. 2023. Effects on gene expression during maize-Azospirillum interaction in the presence of a plant-specific inhibitor of indole-3-acetic acid production. Genet Mol Biol. 46:e20230100.     Reference: September 19th, 2023
Gene Product: November 4th, 2019
Gene Model: November 4th, 2019
7 months agosaur41 small auxin up RNA41:
 
GRMZM2G432060
Eliandro Espindula et al. 2023. Effects on gene expression during maize-Azospirillum interaction in the presence of a plant-specific inhibitor of indole-3-acetic acid production. Genet Mol Biol. 46:e20230100.     Reference: September 19th, 2023
Gene Product: November 26th, 2021
Gene Model: November 26th, 2021
7 months agochlh2 Mg chelatase subunit H 2:
 
GRMZM2G105319
Zhou, Y et al. 2023. The G protein-coupled receptor COLD1 promotes chilling tolerance in maize during germination. Int J Biol Macromol. :doi: 10.1016/j.ijbiomac.2023.126877.     Reference: September 18th, 2023
Gene Product: June 11th, 2007
Gene Model: December 15th, 2021
7 months agokrp9 kinesin-related protein9:
6.05
GRMZM5G881464
Lawrence, CJ et al. 2002. J Mol Evol 54:42-53     Reference: September 1st, 2003
Gene Product: September 18th, 2023
Variation: September 1st, 2003
Gene Model: August 26th, 2018
7 months agoereb147 AP2-EREBP-transcription factor 147:
 
   Zhou, Y et al. 2023. The G protein-coupled receptor COLD1 promotes chilling tolerance in maize during germination. Int J Biol Macromol. :doi: 10.1016/j.ijbiomac.2023.126877.     Reference: September 18th, 2023
Variation: June 20th, 2022
7 months agocyc13 cyclin13:
4.07
GRMZM2G075117
Romero-Sanchez, D et al. 2023. Tissue and subcellular localization of CycD2 and KRPs are dissimilarly distributed by glucose and sucrose during early maize germination. Acta Histochem. 125:152092.     Reference: September 18th, 2023
Gene Product: June 26th, 2009
Variation: March 15th, 2017
Gene Model: March 15th, 2017
7 months agocki1 cyclin-dependent kinase inhibitor1:
1.08
GRMZM2G116885
Romero-Sanchez, D et al. 2023. Tissue and subcellular localization of CycD2 and KRPs are dissimilarly distributed by glucose and sucrose during early maize germination. Acta Histochem. 125:152092.     Reference: September 18th, 2023
Gene Product: March 8th, 2017
Variation: December 6th, 2016
Gene Model: December 6th, 2016
7 months agokrp1 kinesin-related protein1:
4.06
GRMZM2G129569
Gao, J et al. 2021. BMC Plant Biology 21:434     Reference: September 24th, 2021
Gene Product: September 18th, 2023
Gene Model: March 3rd, 2016
7 months agokrp3 kinesin-related protein3:
8.05
GRMZM2G173700
Lawrence, CJ et al. 2002. J Mol Evol 54:42-53     Reference: September 1st, 2003
Gene Product: September 18th, 2023
Gene Model: March 3rd, 2016
7 months agokrp4 kinesin-related protein4:
1.07
GRMZM2G320689
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: September 18th, 2023
Variation: April 22nd, 2006
Gene Model: March 3rd, 2016
7 months agokrp5 kinesin-related protein5:
6.04
GRMZM2G093391
Zhao, XQ et al. 2023. New insights into light spectral quality inhibits the plasticity elongation of maize mesocotyl and coleoptile during seed germination. Frontiers in Plant Science. 14:1152399.     Reference: April 3rd, 2023
Gene Product: September 18th, 2023
Gene Model: August 13th, 2014
7 months agokrp8 kinesin-related protein8:
4.08
GRMZM2G132371
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: September 18th, 2023
Variation: April 4th, 2015
Gene Model: April 4th, 2015
7 months agokrp11 kinesin-related protein11:
7.00
GRMZM2G436981
Cheng Wang et al. 2023. A Systemic Investigation of Genetic Architecture and Gene Resources Controlling Kernel Size-Related Traits in Maize Int J Mol Sci. 24:1025.     Reference: January 5th, 2023
Gene Product: September 18th, 2023
Variation: April 9th, 2019
Gene Model: July 30th, 2015
7 months agokrp15 kinesin-related protein15:
10.04
GRMZM2G054418
Zhang, J et al. 2019. Physiol Plant pp.doi: 10.1111/ppl.13048     Reference: November 15th, 2019
Gene Product: September 18th, 2023
Variation: January 3rd, 2013
Gene Model: March 3rd, 2016
7 months agokrp16 kinesin-related protein16:
8.09
GRMZM2G124883
Lawrence, CJ et al. 2002. J Mol Evol 54:42-53     Reference: September 1st, 2003
Gene Product: September 18th, 2023
Variation: January 4th, 2013
Gene Model: March 3rd, 2016
7 months agocki2 cyclin-dependent kinase inhibitor2:
 
GRMZM2G037926
Romero-Sanchez, D et al. 2023. Tissue and subcellular localization of CycD2 and KRPs are dissimilarly distributed by glucose and sucrose during early maize germination. Acta Histochem. 125:152092.     Reference: September 18th, 2023
Gene Product: March 8th, 2017
Variation: May 17th, 2017
Gene Model: March 7th, 2017
7 months agomex1 maltose excess protein1:
 
GRMZM2G156356
Chen, GP et al. 2023. Improved photosynthetic performance under unilateral weak light conditions in a wide-narrow-row intercropping system is associated with altered sugar transport. J Exp Bot. :doi: 10.1093/jxb/erad370.     Reference: September 18th, 2023
Gene Product: December 15th, 2018
Gene Model: December 15th, 2018
7 months agoamyb3 beta-amylase3:
 
GRMZM2G347708
Chen, GP et al. 2023. Improved photosynthetic performance under unilateral weak light conditions in a wide-narrow-row intercropping system is associated with altered sugar transport. J Exp Bot. :doi: 10.1093/jxb/erad370.     Reference: September 18th, 2023
Gene Product: February 26th, 2021
Gene Model: December 15th, 2018
7 months agotrkin1 tandem repeat kinesin1:
 
   Dawe, RK. 2022. Chromosome Res pp.doi: 10.1007/s10577-022-09693-6     Reference: June 2nd, 2022
Gene Product: September 18th, 2023
7 months agokindr1 kinesin driver1:
 
   Swentowsky, KW et al. 2020. Genes Dev pp.doi: 10.1101/gad.340679.120     Reference: August 21st, 2020
Gene Product: September 18th, 2023
7 months agogeb2 glucan endo-1,3-beta-glucosidase homolog2:
 
GRMZM2G433365
Yu-Han Lin et al. 2023. Ustilago maydis PR-1-like protein has evolved two distinct domains for dual virulence activities Nat Commun. 14:5755.     Reference: September 16th, 2023
Gene Product: September 1st, 2003
Gene Model: April 4th, 2020
7 months agoccp4 cysteine protease4:
7.03
GRMZM2G108849
Yu-Han Lin et al. 2023. Ustilago maydis PR-1-like protein has evolved two distinct domains for dual virulence activities Nat Commun. 14:5755.     Reference: September 16th, 2023
Gene Product: October 11th, 2021
Gene Model: February 13th, 2014
7 months agoccp5 cysteine protease5:
6.01
GRMZM2G066326
Yu-Han Lin et al. 2023. Ustilago maydis PR-1-like protein has evolved two distinct domains for dual virulence activities Nat Commun. 14:5755.     Reference: September 16th, 2023
Gene Product: October 11th, 2021
Variation: March 31st, 2005
Gene Model: February 13th, 2014
7 months agorip1 ribosome-inactivating protein1:
8.03
GRMZM2G063536
Zhu, JM et al. 2023. PER-seq: a simple method to screen transcriptional regulation in plants. Plant Physiol. :doi: 10.1093/plphys/kiad495.     Reference: September 14th, 2023
Gene Product: September 1st, 2003
Variation: April 19th, 2005
Gene Model: April 18th, 2017
7 months agolip15 low temperature-induced protein15:
6.01
GRMZM2G448607
Zhu, JM et al. 2023. PER-seq: a simple method to screen transcriptional regulation in plants. Plant Physiol. :doi: 10.1093/plphys/kiad495.     Reference: September 14th, 2023
Gene Product: September 1st, 2003
Variation: March 14th, 2007
Gene Model: July 28th, 2016
7 months agozim21 ZIM-transcription factor 21:
 
   Zhu, JM et al. 2023. PER-seq: a simple method to screen transcriptional regulation in plants. Plant Physiol. :doi: 10.1093/plphys/kiad495.     Reference: September 14th, 2023
Gene Product: February 24th, 2021
7 months agolkrsdh1 lysine-ketoglutarate reductase/saccharopine dehydrogenase1:
4.07
   Zhu, JM et al. 2023. PER-seq: a simple method to screen transcriptional regulation in plants. Plant Physiol. :doi: 10.1093/plphys/kiad495.     Reference: September 14th, 2023
Gene Product: September 1st, 2003
Variation: April 18th, 2008
7 months agogz50 50kD gamma zein:
7.02
GRMZM2G138689
Zhu, JM et al. 2023. PER-seq: a simple method to screen transcriptional regulation in plants. Plant Physiol. :doi: 10.1093/plphys/kiad495.     Reference: September 14th, 2023
Gene Product: September 22nd, 2010
Variation: September 16th, 2010
Gene Model: November 21st, 2014
7 months agozp3 zein protein3:
 
GRMZM2G160739
Zhu, JM et al. 2023. PER-seq: a simple method to screen transcriptional regulation in plants. Plant Physiol. :doi: 10.1093/plphys/kiad495.     Reference: September 14th, 2023
Gene Product: September 1st, 2003
Gene Model: August 1st, 2016
7 months agoIDP336  :
7.01
GRMZM2G443668
Zhu, JM et al. 2023. PER-seq: a simple method to screen transcriptional regulation in plants. Plant Physiol. :doi: 10.1093/plphys/kiad495.     Reference: September 14th, 2023
Variation: March 31st, 2005
Gene Model: January 30th, 2019
7 months agotar3 tryptophan aminotransferase related3:
6.05
GRMZM2G141810
Zhu, JM et al. 2023. PER-seq: a simple method to screen transcriptional regulation in plants. Plant Physiol. :doi: 10.1093/plphys/kiad495.     Reference: September 14th, 2023
Gene Product: April 30th, 2011
Gene Model: August 22nd, 2013
7 months agopum9 pumilio9:
 
   Feng, WQ et al. 2023. Comprehensive Identification of the Pum Gene Family and Its Involvement in Kernel Development in Maize Int J Mol Sci. 24:14036.     Reference: September 13th, 2023
Gene Product: September 13th, 2023
7 months agoisca2 iron sulfur cluster assembly2:
 
   Wang, JL et al. 2023. Investigating the genetic basis of maize ear characteristics: a comprehensive genome-wide study utilizing high-throughput phenotypic measurement method and system. Frontiers in Plant Science. 14:1248446.     Reference: September 13th, 2023
Gene Product: August 12th, 2023
7 months agopum1 pumilio1:
 
   Feng, WQ et al. 2023. Comprehensive Identification of the Pum Gene Family and Its Involvement in Kernel Development in Maize Int J Mol Sci. 24:14036.     Reference: September 13th, 2023
Gene Product: September 13th, 2023
7 months agopum2 pumilio2:
 
   Feng, WQ et al. 2023. Comprehensive Identification of the Pum Gene Family and Its Involvement in Kernel Development in Maize Int J Mol Sci. 24:14036.     Reference: September 13th, 2023
Gene Product: September 13th, 2023
7 months agopum3 pumilio3:
 
   Feng, WQ et al. 2023. Comprehensive Identification of the Pum Gene Family and Its Involvement in Kernel Development in Maize Int J Mol Sci. 24:14036.     Reference: September 13th, 2023
Gene Product: September 13th, 2023
7 months agopum6 pumilio6:
 
   Feng, WQ et al. 2023. Comprehensive Identification of the Pum Gene Family and Its Involvement in Kernel Development in Maize Int J Mol Sci. 24:14036.     Reference: September 13th, 2023
Gene Product: September 13th, 2023
7 months agopum7 pumilio7:
 
   Feng, WQ et al. 2023. Comprehensive Identification of the Pum Gene Family and Its Involvement in Kernel Development in Maize Int J Mol Sci. 24:14036.     Reference: September 13th, 2023
Gene Product: September 13th, 2023
7 months agopum12 pumilio12:
 
   Feng, WQ et al. 2023. Comprehensive Identification of the Pum Gene Family and Its Involvement in Kernel Development in Maize Int J Mol Sci. 24:14036.     Reference: September 13th, 2023
Gene Product: September 13th, 2023
7 months agopum14 pumilio14:
 
   Feng, WQ et al. 2023. Comprehensive Identification of the Pum Gene Family and Its Involvement in Kernel Development in Maize Int J Mol Sci. 24:14036.     Reference: September 13th, 2023
Gene Product: September 13th, 2023
7 months agopum16 pumilio16:
 
   Feng, WQ et al. 2023. Comprehensive Identification of the Pum Gene Family and Its Involvement in Kernel Development in Maize Int J Mol Sci. 24:14036.     Reference: September 13th, 2023
Gene Product: September 13th, 2023
7 months agopum19 pumilio19:
 
   Feng, WQ et al. 2023. Comprehensive Identification of the Pum Gene Family and Its Involvement in Kernel Development in Maize Int J Mol Sci. 24:14036.     Reference: September 13th, 2023
Gene Product: September 13th, 2023
7 months agopum15 pumilio15:
8.05
GRMZM2G112769
Feng, WQ et al. 2023. Comprehensive Identification of the Pum Gene Family and Its Involvement in Kernel Development in Maize Int J Mol Sci. 24:14036.     Reference: September 13th, 2023
Gene Product: September 13th, 2023
Variation: September 1st, 2003
Gene Model: September 1st, 2019
7 months agopum5 pumilio5:
1.11
GRMZM2G114692
Feng, WQ et al. 2023. Comprehensive Identification of the Pum Gene Family and Its Involvement in Kernel Development in Maize Int J Mol Sci. 24:14036.     Reference: September 13th, 2023
Gene Product: September 13th, 2023
Gene Model: August 9th, 2021
7 months agofad8 fatty acid desaturase8:
1.03
GRMZM2G074401
Wang, JL et al. 2023. Investigating the genetic basis of maize ear characteristics: a comprehensive genome-wide study utilizing high-throughput phenotypic measurement method and system. Frontiers in Plant Science. 14:1248446.     Reference: September 13th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: January 29th, 2015
7 months agopdc3 pyruvate decarboxylase3:
1.03
   Wang, JL et al. 2023. Investigating the genetic basis of maize ear characteristics: a comprehensive genome-wide study utilizing high-throughput phenotypic measurement method and system. Frontiers in Plant Science. 14:1248446.     Reference: September 13th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
7 months agopum17 pumilio17:
10.03
GRMZM2G160279
Feng, WQ et al. 2023. Comprehensive Identification of the Pum Gene Family and Its Involvement in Kernel Development in Maize Int J Mol Sci. 24:14036.     Reference: September 13th, 2023
Gene Product: September 13th, 2023
Gene Model: December 15th, 2017
7 months agoagrr21  :
8.09
GRMZM2G302639
Wang, JL et al. 2023. Investigating the genetic basis of maize ear characteristics: a comprehensive genome-wide study utilizing high-throughput phenotypic measurement method and system. Frontiers in Plant Science. 14:1248446.     Reference: September 13th, 2023
Variation: September 25th, 2007
Gene Model: April 19th, 2017
7 months agopum4 pumilio4:
1.06
GRMZM2G449123
Feng, WQ et al. 2023. Comprehensive Identification of the Pum Gene Family and Its Involvement in Kernel Development in Maize Int J Mol Sci. 24:14036.     Reference: September 13th, 2023
Gene Product: September 13th, 2023
Gene Model: April 10th, 2021
7 months agosmk1 small kernel1:
 
GRMZM2G030148
Wang, JL et al. 2023. Investigating the genetic basis of maize ear characteristics: a comprehensive genome-wide study utilizing high-throughput phenotypic measurement method and system. Frontiers in Plant Science. 14:1248446.     Reference: September 13th, 2023
Gene Product: June 14th, 2014
Variation: June 14th, 2014
Gene Model: June 14th, 2014
7 months agodapat1 diaminopimelate aminotransferase1:
 
GRMZM2G010328
Wang, JL et al. 2023. Investigating the genetic basis of maize ear characteristics: a comprehensive genome-wide study utilizing high-throughput phenotypic measurement method and system. Frontiers in Plant Science. 14:1248446.     Reference: September 13th, 2023
Gene Product: October 21st, 2020
Gene Model: October 21st, 2020
7 months agopum13 pumilio13:
 
GRMZM2G704349
Feng, WQ et al. 2023. Comprehensive Identification of the Pum Gene Family and Its Involvement in Kernel Development in Maize Int J Mol Sci. 24:14036.     Reference: September 13th, 2023
Gene Product: September 13th, 2023
Gene Model: April 28th, 2021
7 months agopum11 pumilio11:
 
GRMZM2G038818
Feng, WQ et al. 2023. Comprehensive Identification of the Pum Gene Family and Its Involvement in Kernel Development in Maize Int J Mol Sci. 24:14036.     Reference: September 13th, 2023
Gene Product: September 13th, 2023
Gene Model: July 21st, 2021
7 months agopum10 pumilio10:
 
GRMZM2G049623
Feng, WQ et al. 2023. Comprehensive Identification of the Pum Gene Family and Its Involvement in Kernel Development in Maize Int J Mol Sci. 24:14036.     Reference: September 13th, 2023
Gene Product: September 13th, 2023
Gene Model: November 16th, 2021
7 months agoZm00001d029087  :
 
GRMZM2G011240
Du, K et al. 2023. Auxin and abscisic acid play important roles in promoting glucose metabolism of reactivated young kernels of maize (Zea mays L.) Physiol Plant. :doi: 10.1111/ppl.14019.     Reference: September 13th, 2023
Gene Product: October 25th, 2006
Gene Model: January 12th, 2022
7 months agopum18 pumilio18:
10.03
GRMZM2G006287
Feng, WQ et al. 2023. Comprehensive Identification of the Pum Gene Family and Its Involvement in Kernel Development in Maize Int J Mol Sci. 24:14036.     Reference: September 13th, 2023
Gene Product: September 13th, 2023
Gene Model: June 30th, 2020
7 months agoIDP3865  :
1.03
GRMZM2G135456
Wang, JL et al. 2023. Investigating the genetic basis of maize ear characteristics: a comprehensive genome-wide study utilizing high-throughput phenotypic measurement method and system. Frontiers in Plant Science. 14:1248446.     Reference: September 13th, 2023
Variation: March 31st, 2005
Gene Model: March 24th, 2021
7 months agopum8 pumilio8:
4.05
GRMZM2G035118
Feng, WQ et al. 2023. Comprehensive Identification of the Pum Gene Family and Its Involvement in Kernel Development in Maize Int J Mol Sci. 24:14036.     Reference: September 13th, 2023
Gene Product: September 13th, 2023
Variation: March 31st, 2005
Gene Model: May 22nd, 2021
7 months agouce12 ubiquitin conjugating enzyme12:
8.03
GRMZM2G015287
Wang, JL et al. 2023. Investigating the genetic basis of maize ear characteristics: a comprehensive genome-wide study utilizing high-throughput phenotypic measurement method and system. Frontiers in Plant Science. 14:1248446.     Reference: September 13th, 2023
Gene Product: December 19th, 2019
Variation: March 31st, 2005
Gene Model: July 25th, 2018
7 months agosi945020c09  :
5.03
GRMZM2G098370
Cai, Q et al. 2023. Multiomics comparative analysis of the maize large grain mutant tc19 identified pathways related to kernel development. BMC Genomics. 24:537.     Reference: September 12th, 2023
Variation: September 25th, 2007
Gene Model: August 27th, 2021
7 months agoabi5 ABI3-VP1-transcription factor 5:
 
   Singh, A et al. 2023. Drought stress in maize: stress perception to molecular response and strategies for its improvement. Funct Integr Genomics. 23:296.     Reference: September 12th, 2023
Gene Product: January 29th, 2022
7 months agowee1 wee1:
4.11
GRMZM5G878541
Singh, A et al. 2023. Drought stress in maize: stress perception to molecular response and strategies for its improvement. Funct Integr Genomics. 23:296.     Reference: September 12th, 2023
Variation: March 21st, 2017
Gene Model: March 17th, 2017
7 months agomrpa4 multidrug resistance-associated protein 4:
1.01
GRMZM2G079772
Singh, A et al. 2023. Drought stress in maize: stress perception to molecular response and strategies for its improvement. Funct Integr Genomics. 23:296.     Reference: September 12th, 2023
Gene Product: July 11th, 2019
Variation: July 12th, 2019
Gene Model: October 17th, 2016
7 months agopyl9 pyrabactin resistance-like protein9:
 
GRMZM2G133631
Singh, A et al. 2023. Drought stress in maize: stress perception to molecular response and strategies for its improvement. Funct Integr Genomics. 23:296.     Reference: September 12th, 2023
Gene Product: January 31st, 2021
Gene Model: April 21st, 2018
7 months agoprh28 protein phosphatase homolog28:
 
GRMZM2G108355
Singh, A et al. 2023. Drought stress in maize: stress perception to molecular response and strategies for its improvement. Funct Integr Genomics. 23:296.     Reference: September 12th, 2023
Gene Product: October 25th, 2021
Gene Model: October 25th, 2021
8 months agoprh141 protein phosphatase homolog141:
 
   Huan Wu et al. 2023. Genome-Wide Identification and Characterization of the PP2C Family from Zea mays and Its Role in Long-Distance Signaling. Plants. 12:3153.     Reference: September 11th, 2023
Gene Product: October 25th, 2021
8 months agoprh138 protein phosphatase homolog138:
 
   Huan Wu et al. 2023. Genome-Wide Identification and Characterization of the PP2C Family from Zea mays and Its Role in Long-Distance Signaling. Plants. 12:3153.     Reference: September 11th, 2023
Gene Product: October 25th, 2021
8 months agoiaa49 auxin-responsive Aux/IAA family member 49:
 
   Huan Wu et al. 2023. Genome-Wide Identification and Characterization of the PP2C Family from Zea mays and Its Role in Long-Distance Signaling. Plants. 12:3153.     Reference: September 11th, 2023
Gene Product: October 25th, 2021
8 months agoprh142 protein phosphatase homolog142:
 
   Huan Wu et al. 2023. Genome-Wide Identification and Characterization of the PP2C Family from Zea mays and Its Role in Long-Distance Signaling. Plants. 12:3153.     Reference: September 11th, 2023
Gene Product: October 25th, 2021
8 months agofha7 FHA-transcription factor 7:
 
   Huan Wu et al. 2023. Genome-Wide Identification and Characterization of the PP2C Family from Zea mays and Its Role in Long-Distance Signaling. Plants. 12:3153.     Reference: September 11th, 2023
Gene Product: October 25th, 2021
8 months agoprh143 protein phosphatase homolog143:
9.07
GRMZM2G004377
Huan Wu et al. 2023. Genome-Wide Identification and Characterization of the PP2C Family from Zea mays and Its Role in Long-Distance Signaling. Plants. 12:3153.     Reference: September 11th, 2023
Gene Product: October 25th, 2021
Variation: September 1st, 2003
Gene Model: March 8th, 2018
8 months agoprh140 protein phosphatase homolog140:
 
GRMZM2G063841
Huan Wu et al. 2023. Genome-Wide Identification and Characterization of the PP2C Family from Zea mays and Its Role in Long-Distance Signaling. Plants. 12:3153.     Reference: September 11th, 2023
Gene Product: January 31st, 2021
Gene Model: January 31st, 2021
8 months agoprh124 protein phosphatase homolog124:
 
GRMZM2G053722
Huan Wu et al. 2023. Genome-Wide Identification and Characterization of the PP2C Family from Zea mays and Its Role in Long-Distance Signaling. Plants. 12:3153.     Reference: September 11th, 2023
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
8 months agoprh83 protein phosphatase homolog83:
 
GRMZM2G377904
Huan Wu et al. 2023. Genome-Wide Identification and Characterization of the PP2C Family from Zea mays and Its Role in Long-Distance Signaling. Plants. 12:3153.     Reference: September 11th, 2023
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
8 months agoprh87 protein phosphatase homolog87:
 
GRMZM2G407623
Huan Wu et al. 2023. Genome-Wide Identification and Characterization of the PP2C Family from Zea mays and Its Role in Long-Distance Signaling. Plants. 12:3153.     Reference: September 11th, 2023
Gene Product: October 25th, 2021
Gene Model: November 24th, 2021
8 months agoprh139 protein phosphatase homolog139:
5.03
GRMZM2G071087
Huan Wu et al. 2023. Genome-Wide Identification and Characterization of the PP2C Family from Zea mays and Its Role in Long-Distance Signaling. Plants. 12:3153.     Reference: September 11th, 2023
Gene Product: October 25th, 2021
Gene Model: May 9th, 2020
8 months agopr1 red aleurone1:
5.05
GRMZM2G025832
Anirban, A et al. 2023. Mol Genet Genomics. doi: 10.1007/s00438-023-02060-y     Reference: September 8th, 2023
Gene Product: June 20th, 2018
Variation: June 10th, 2011
Gene Model: September 22nd, 2011
8 months agonrat1 nramp aluminum transporter1:
 
GRMZM2G069198
Rabby, MG et al. 2023. In Silico Functional Prediction, and Expression Analysis in Response to Drought Stress of Natural Resistance-Associated Macrophage Protein (NRAMP) Gene Family in Maize J Data Mining Genomics Proteomics. 14:1000302.     Reference: September 8th, 2023
Gene Product: August 17th, 2015
Variation: August 17th, 2015
Gene Model: August 17th, 2015
8 months agonrat2 nramp aluminum transporter2:
 
GRMZM2G168747
Rabby, MG et al. 2023. In Silico Functional Prediction, and Expression Analysis in Response to Drought Stress of Natural Resistance-Associated Macrophage Protein (NRAMP) Gene Family in Maize J Data Mining Genomics Proteomics. 14:1000302.     Reference: September 8th, 2023
Gene Product: August 17th, 2015
Variation: May 5th, 2023
Gene Model: May 1st, 2020
8 months agonrat4 nramp aluminum transporter4:
 
GRMZM2G028036
Rabby, MG et al. 2023. In Silico Functional Prediction, and Expression Analysis in Response to Drought Stress of Natural Resistance-Associated Macrophage Protein (NRAMP) Gene Family in Maize J Data Mining Genomics Proteomics. 14:1000302.     Reference: September 8th, 2023
Gene Product: August 17th, 2015
Gene Model: March 5th, 2021
8 months agonrat6 nramp aluminum transporter6:
 
GRMZM2G025680
Rabby, MG et al. 2023. In Silico Functional Prediction, and Expression Analysis in Response to Drought Stress of Natural Resistance-Associated Macrophage Protein (NRAMP) Gene Family in Maize J Data Mining Genomics Proteomics. 14:1000302.     Reference: September 8th, 2023
Gene Product: August 17th, 2015
Gene Model: April 27th, 2022
8 months agonrat7 nramp aluminum transporter7:
 
GRMZM2G366919
Rabby, MG et al. 2023. In Silico Functional Prediction, and Expression Analysis in Response to Drought Stress of Natural Resistance-Associated Macrophage Protein (NRAMP) Gene Family in Maize J Data Mining Genomics Proteomics. 14:1000302.     Reference: September 8th, 2023
Gene Product: August 17th, 2015
Gene Model: June 6th, 2022
8 months agoprd4 putative recombination initiation defect4:
 
   Guo, SJ et al. 2023. Using High-Throughput Phenotyping Analysis to Decipher the Phenotypic Components and Genetic Architecture of Maize Seedling Salt Tolerance Genes. 14:1771.   AT1G01690 (TAIR) Reference: September 7th, 2023
Variation: October 12th, 2022
8 months agoago18a argonaute18a:
2.07
   Kelliher, T; Walbot, V. 2014. Plant J pp.DOI: 10.1111/tpj.12414     Reference: September 7th, 2023
Gene Product: August 12th, 2016
8 months agohm1 Helminthosporium carbonum susceptibility1:
1.06
   Choudhary, M et al. 2023. Conventional and Molecular Breeding for Genetic Improvement of Maize (Zea mays L.); In: Advanced Crop Improvement Volume 2, Aamir Raina, Mohammad Rafiq Wani, Rafiul Amin Laskar, Nasya Tomlekova, Samiullah Khan (Editors), Springer Nature :317–350.     Reference: September 7th, 2023
Gene Product: May 23rd, 2014
Variation: September 1st, 2003
8 months agobnl8.45a  :
2.01
GRMZM2G084252
Guo, SJ et al. 2023. Using High-Throughput Phenotyping Analysis to Decipher the Phenotypic Components and Genetic Architecture of Maize Seedling Salt Tolerance Genes. 14:1771.     Reference: September 7th, 2023
Variation: September 1st, 2003
Gene Model: April 21st, 2021
8 months agoago5b argonaute5b:
2.09
GRMZM2G059033
Kelliher, T; Walbot, V. 2014. Plant J pp.DOI: 10.1111/tpj.12414     Reference: September 7th, 2023
Gene Product: August 12th, 2016
Gene Model: April 5th, 2022
8 months agoufg75b  :
10.07
GRMZM2G120136
Guo, SJ et al. 2023. Using High-Throughput Phenotyping Analysis to Decipher the Phenotypic Components and Genetic Architecture of Maize Seedling Salt Tolerance Genes. 14:1771.     Reference: September 7th, 2023
Variation: October 24th, 2018
Gene Model: October 24th, 2018
8 months agospr1 signal recognition particle receptor homolog1:
1.00
GRMZM2G060296
Guo, SJ et al. 2023. Using High-Throughput Phenotyping Analysis to Decipher the Phenotypic Components and Genetic Architecture of Maize Seedling Salt Tolerance Genes. 14:1771.     Reference: September 7th, 2023
Gene Product: September 1st, 2003
Variation: April 14th, 2011
Gene Model: July 28th, 2016
8 months agosmk2 small kernel2:
4.10
GRMZM2G023528
Lu, CC et al. 2022. Multiple forms of vitamin B6 regulate salt tolerance by balancing ROS and abscisic acid levels in maize root. Stress Biol. 2:39.     Reference: September 7th, 2023
Gene Product: April 14th, 2017
Variation: April 14th, 2017
Gene Model: April 14th, 2017
8 months agoago108 argonaute108:
5.01
GRMZM2G461936
Kelliher, T; Walbot, V. 2014. Plant J pp.DOI: 10.1111/tpj.12414     Reference: September 7th, 2023
Gene Product: August 12th, 2016
Variation: September 11th, 2007
Gene Model: August 13th, 2016
8 months agoppr152 pentatricopeptide repeat protein152:
 
GRMZM2G050697
Guo, SJ et al. 2023. Using High-Throughput Phenotyping Analysis to Decipher the Phenotypic Components and Genetic Architecture of Maize Seedling Salt Tolerance Genes. 14:1771.     Reference: September 7th, 2023
Gene Product: April 29th, 2013
Gene Model: April 26th, 2013
8 months agodmag4 DNA-3-methyladenine glycosylase4:
 
GRMZM2G113228
Kelliher, T; Walbot, V. 2014. Plant J pp.DOI: 10.1111/tpj.12414     Reference: September 7th, 2023
Gene Product: January 1st, 2022
Gene Model: February 13th, 2014
8 months agocl14668_1  :
4.09
GRMZM2G037185
Guo, SJ et al. 2023. Using High-Throughput Phenotyping Analysis to Decipher the Phenotypic Components and Genetic Architecture of Maize Seedling Salt Tolerance Genes. 14:1771.     Reference: September 7th, 2023
Variation: September 25th, 2007
Gene Model: August 24th, 2021
8 months agonl4 narrow leaf4:
4.01
GRMZM2G070553
Guo, SJ et al. 2023. Using High-Throughput Phenotyping Analysis to Decipher the Phenotypic Components and Genetic Architecture of Maize Seedling Salt Tolerance Genes. 14:1771.     Reference: September 7th, 2023
Gene Product: May 19th, 2021
Variation: May 19th, 2021
Gene Model: April 11th, 2020
8 months agoago1d argonaute1d:
 
GRMZM2G361518
Kelliher, T; Walbot, V. 2014. Plant J pp.DOI: 10.1111/tpj.12414   AT1G48410 (TAIR) Reference: September 7th, 2023
Gene Product: August 12th, 2016
Gene Model: February 6th, 2016
8 months agoago1b argonaute1b:
 
AC209206.3_FG011
Kelliher, T; Walbot, V. 2014. Plant J pp.DOI: 10.1111/tpj.12414   AT1G48410 (TAIR) Reference: September 7th, 2023
Gene Product: August 12th, 2016
Gene Model: February 6th, 2016
8 months agoago1a argonaute1a:
 
GRMZM2G441583
Kelliher, T; Walbot, V. 2014. Plant J pp.DOI: 10.1111/tpj.12414   AT1G48410 (TAIR) Reference: September 7th, 2023
Gene Product: August 12th, 2016
Gene Model: February 6th, 2016
8 months agodmc1 disrupted meiotic cDNA homolog1:
 
GRMZM2G109618
Kelliher, T; Walbot, V. 2014. Plant J pp.DOI: 10.1111/tpj.12414     Reference: September 7th, 2023
Variation: May 12th, 2017
Gene Model: January 27th, 2017
8 months agosro1 similar to RCD one1:
 
GRMZM2G122543
Tian, T et al. 2023. CIMBL55: a repository for maize drought resistance alleles. Stress Biol. 3:13.     Reference: September 7th, 2023
Gene Product: September 7th, 2018
Variation: November 20th, 2020
Gene Model: August 10th, 2018
8 months agordr1 RNA-dependent RNA polymerase1:
 
GRMZM2G481730
Kelliher, T; Walbot, V. 2014. Plant J pp.DOI: 10.1111/tpj.12414     Reference: September 7th, 2023
Gene Product: August 8th, 2006
Gene Model: June 20th, 2019
8 months agoppr365 pentatricopeptide repeat protein365:
6.06
AC218148.2_FG008
Guo, SJ et al. 2023. Using High-Throughput Phenotyping Analysis to Decipher the Phenotypic Components and Genetic Architecture of Maize Seedling Salt Tolerance Genes. 14:1771.     Reference: September 7th, 2023
Gene Product: December 27th, 2016
Gene Model: December 31st, 2019
8 months agoAY112175  :
1.11
   Guo, SJ et al. 2023. Using High-Throughput Phenotyping Analysis to Decipher the Phenotypic Components and Genetic Architecture of Maize Seedling Salt Tolerance Genes. 14:1771.     Reference: September 7th, 2023
Variation: September 25th, 2007
8 months agoago101 argonaute101:
9.03
AC189879.3_FG003
Kelliher, T; Walbot, V. 2014. Plant J pp.DOI: 10.1111/tpj.12414     Reference: September 7th, 2023
Gene Product: August 12th, 2016
Variation: September 11th, 2007
Gene Model: January 30th, 2015
8 months agoarftf13 ARF-transcription factor 13:
 
   Hongyan Xing et al. 2011. Genome-wide identification and expression profiling of auxin response factor (ARF) gene family in maize. BMC Genomics. 12:178.     Reference: September 6th, 2023
Gene Product: January 29th, 2022
8 months agoarftf14 ARF-transcription factor 14:
 
   Hongyan Xing et al. 2011. Genome-wide identification and expression profiling of auxin response factor (ARF) gene family in maize. BMC Genomics. 12:178.     Reference: September 6th, 2023
Gene Product: January 29th, 2022
8 months agoarftf23 ARF-transcription factor 23:
 
   Hongyan Xing et al. 2011. Genome-wide identification and expression profiling of auxin response factor (ARF) gene family in maize. BMC Genomics. 12:178.     Reference: September 6th, 2023
Gene Product: January 29th, 2022
Variation: July 7th, 2017
8 months agoarftf26 ARF-transcription factor 26:
 
   Hongyan Xing et al. 2011. Genome-wide identification and expression profiling of auxin response factor (ARF) gene family in maize. BMC Genomics. 12:178.     Reference: September 6th, 2023
Gene Product: January 29th, 2022
Variation: July 7th, 2017
8 months agoarftf31 ARF-transcription factor 31:
 
   Hongyan Xing et al. 2011. Genome-wide identification and expression profiling of auxin response factor (ARF) gene family in maize. BMC Genomics. 12:178.     Reference: September 6th, 2023
Gene Product: January 29th, 2022
Variation: August 7th, 2016
8 months agoarftf39 ARF-transcription factor 39:
 
   Hongyan Xing et al. 2011. Genome-wide identification and expression profiling of auxin response factor (ARF) gene family in maize. BMC Genomics. 12:178.     Reference: September 6th, 2023
Gene Product: January 29th, 2022
8 months agotu1 tunicate1:
4.08 - 4.08
GRMZM2G370777
Xie, P et al. 2023. Evolution of cereal floral architecture and threshability Trends Plant Sci. :doi: 10.1016/j.tplants.2023.08.003.     Reference: September 5th, 2023
Gene Product: June 12th, 2012
Variation: February 3rd, 2011
Gene Model: May 9th, 2012
8 months agozap1 zea apetala homolog1:
2.10
   Xie, P et al. 2023. Evolution of cereal floral architecture and threshability Trends Plant Sci. :doi: 10.1016/j.tplants.2023.08.003.     Reference: September 5th, 2023
Variation: February 2nd, 2011
8 months agozag2 Zea AGAMOUS homolog2:
3.05 - 3.05
   Xie, P et al. 2023. Evolution of cereal floral architecture and threshability Trends Plant Sci. :doi: 10.1016/j.tplants.2023.08.003.     Reference: September 5th, 2023
Gene Product: September 10th, 2021
Variation: October 22nd, 2014
8 months agofht2 flavanone 3-hydroxylase2:
1.04
GRMZM2G382569
Xu, YF et al. 2023. Increasing Fusarium verticillioides resistance in maize by genomics-assisted breeding: Methods, progress, and prospects Crop J. :doi: 10.1016/j.cj.2023.07.004.     Reference: September 5th, 2023
Gene Product: June 8th, 2012
Gene Model: June 7th, 2017
8 months agomha6 membrane H(+)-ATPase6:
 
GRMZM2G008122
Ming Ju et al. 2017. Dissecting the genetic architecture of Fusarium verticillioides seed rot resistance in maize by combining QTL mapping and genome-wide association analysis. Sci. Rep.. 7:46446.     Reference: September 5th, 2023
Gene Product: September 1st, 2003
Gene Model: January 10th, 2020
8 months agoaga1 alkaline galactosidase1:
 
GRMZM2G340656
Chen, Y et al. 2023. Genes and pathways correlated with heat stress responses and heat tolerance in maize kernels. Frontiers in Plant Science. 14:1228213.     Reference: September 4th, 2023
Gene Product: March 1st, 2018
Gene Model: March 1st, 2018
8 months agoLOC103640768  :
 
   Tripathi, D et al. 2023. Ribonucleotide and R-Loop Damage in Plastid DNA and Mitochondrial DNA during Maize Development Plants. 12:3161.   AT2G25100 (TAIR) Reference: September 2nd, 2023
Gene Product: September 2nd, 2023
8 months agoLOC103640774  :
 
   Tripathi, D et al. 2023. Ribonucleotide and R-Loop Damage in Plastid DNA and Mitochondrial DNA during Maize Development Plants. 12:3161.   AT2G25100 (TAIR) Reference: September 2nd, 2023
Gene Product: September 2nd, 2023
8 months agoTIDP3662  :
5.04
GRMZM2G005998
  AT2G39440 (TAIR) Gene Product: September 2nd, 2023
Gene Model: May 14th, 2020
8 months agosi660065b07  :
2.04
GRMZM2G148211
    Gene Product: September 2nd, 2023
Gene Model: August 23rd, 2022
8 months agoAY110479  :
1.11
   Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Variation: September 25th, 2007
8 months agomyb33 MYB-transcription factor 33:
1.07
   Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Variation: September 25th, 2007
8 months agocsu904  :
7.04
GRMZM2G102786
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Variation: September 1st, 2003
Gene Model: February 6th, 2019
8 months agopza01735  :
2.06
   Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: August 12th, 2018
8 months agomyb42 myb transcription factor 42:
4.09
   Hou, QC et al. 2022. Plants 11:627   LOC_Os08g43550 (MSU/TIGR) Reference: September 1st, 2023
Gene Product: February 16th, 2011
Variation: November 7th, 2017
8 months agodhar1 dehydroascorbate reductase like1:
8.05
GRMZM5G855672
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: March 28th, 2013
Gene Model: April 1st, 2013
8 months agomets3 methionine synthase3:
1.09
GRMZM2G165747
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: September 1st, 2003
Gene Model: July 12th, 2017
8 months agopao4 polyamine oxidase4:
10.07
GRMZM2G150248
Hassani, SB et al. 2023. Response to Cadmium Toxicity: Orchestration of Polyamines and microRNAs in Maize Plant. 12:1991.     Reference: September 1st, 2023
Gene Product: June 10th, 2020
Gene Model: January 25th, 2018
8 months agohb2 hemoglobin2:
6.06
GRMZM2G168898
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: February 20th, 2018
Gene Model: May 15th, 2014
8 months agoIDP8938  :
2.01
GRMZM2G150496
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: April 18th, 2023
Gene Model: April 21st, 2021
8 months agonaat1 nicotianamine aminotransferase1:
4.09
GRMZM2G096958
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: January 18th, 2022
Variation: April 9th, 2015
Gene Model: April 9th, 2015
8 months agoin1 intensifier1:
7.02
   Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Variation: September 1st, 2003
8 months agodhar3 dehydroascorbate reductase like3:
6.01
GRMZM2G035502
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: March 28th, 2013
Gene Model: March 28th, 2013
8 months agogcsh1 glycine cleavage system protein H1:
10.03
GRMZM2G399183
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: October 2nd, 2015
8 months agotua1 alpha tubulin1:
1.10
GRMZM2G153292
Lian, T et al. 2022. Int J Mol Sci 23:1708     Reference: September 1st, 2023
Gene Product: September 1st, 2003
Variation: August 9th, 2013
Gene Model: October 24th, 2013
8 months agotua2 alpha tubulin2:
1.10
GRMZM2G153292
Lian, T et al. 2022. Int J Mol Sci 23:1708     Reference: September 1st, 2023
Gene Product: September 1st, 2003
Variation: August 9th, 2013
Gene Model: May 8th, 2015
8 months agomets1 methionine synthase1:
1.06
GRMZM2G149751
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: September 1st, 2003
Gene Model: February 9th, 2020
8 months agofad7 fatty acid desaturase7:
9.06
GRMZM2G128971
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: September 1st, 2003
Variation: September 25th, 2007
Gene Model: August 23rd, 2014
8 months agoocl1 outer cell layer1:
3.04
   Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: September 1st, 2003
Variation: April 12th, 2005
8 months agoumc1320  :
3.08
GRMZM5G831142
Hao, YF et al. 2023. Genetic and Transcriptomic Dissection of Host Defense to Goss's Bacterial Wilt and Leaf Blight of Maize. G3. :doi: 10.1093/g3journal/jkad197.     Reference: September 1st, 2023
Variation: September 1st, 2003
Gene Model: April 1st, 2018
8 months agofer1 ferritin1:
4.08
   Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: July 28th, 2021
Variation: December 4th, 2012
8 months agofer2 ferritin homolog2:
10.00
   Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: July 28th, 2021
Variation: December 4th, 2012
8 months agoumc1390  :
4.05
   Lian, T et al. 2022. Int J Mol Sci 23:1708     Reference: September 1st, 2023
Variation: September 1st, 2003
8 months agomate1 multidrug and toxic compound extrusion1:
 
GRMZM5G870170
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: August 17th, 2015
Variation: March 19th, 2013
Gene Model: March 19th, 2013
8 months agoabi49 ABI3-VP1-transcription factor 49:
 
   Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: January 29th, 2022
8 months agosbp7 SBP-transcription factor 7:
 
   Lian, T et al. 2022. Int J Mol Sci 23:1708     Reference: September 1st, 2023
Gene Product: July 5th, 2019
8 months agodrts4 bifunctional dihydrofolate reductase-thymidylate synthase4:
4.03
GRMZM2G139880
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: April 12th, 2020
8 months agopao1 polyamine oxidase1:
10.03
GRMZM2G034152
Hassani, SB et al. 2023. Response to Cadmium Toxicity: Orchestration of Polyamines and microRNAs in Maize Plant. 12:1991.     Reference: September 1st, 2023
Gene Product: June 10th, 2020
Variation: October 7th, 2015
Gene Model: October 7th, 2015
8 months agoglpdh2 glycerol-3-phosphate dehydrogenase2:
8.08
GRMZM2G090747
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: July 12th, 2018
Variation: May 17th, 2016
Gene Model: May 17th, 2016
8 months agosbe3 starch branching enzyme3:
8.06
GRMZM2G005298
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: June 6th, 2011
Variation: June 1st, 2011
Gene Model: September 23rd, 2018
8 months agoabi47 ABI3-VP1-transcription factor 47:
4.08
GRMZM2G125596
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: January 29th, 2022
Gene Model: June 10th, 2018
8 months agomthfr2 methylenetetrahydrofolate reductase2:
5.00
GRMZM2G034278
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: August 28th, 2012
Gene Model: August 28th, 2012
8 months agoumc2236  :
1.06
GRMZM2G017110
Lian, T et al. 2022. Int J Mol Sci 23:1708     Reference: September 1st, 2023
Variation: June 16th, 2017
Gene Model: June 16th, 2017
8 months agoumc2311  :
6.01
GRMZM2G036908
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Variation: September 25th, 2007
Gene Model: August 18th, 2018
8 months agoole3 oleosin3:
5.01 - 5.04
   Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
8 months agotub7 beta tubulin7:
9.03
   Lian, T et al. 2022. Int J Mol Sci 23:1708     Reference: September 1st, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
8 months agothr1 threonine synthase1:
3.08
GRMZM2G050570
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: September 1st, 2003
Variation: March 25th, 2015
Gene Model: March 25th, 2015
8 months agopap22 purple acid phosphatase22:
1.08
GRMZM2G174549
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: November 21st, 2018
Gene Model: November 23rd, 2018
8 months agodrts3 bifunctional dihydrofolate reductase-thymidylate synthase3:
2.08
   Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: September 1st, 2003
8 months agogldh1 galactono lactone dehydrogenase1:
2.05
GRMZM2G469969
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: March 29th, 2013
Gene Model: March 29th, 2013
8 months agofold1 bifunctional protein FolD1:
2.05
GRMZM2G130790
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: January 15th, 2021
Gene Model: March 20th, 2020
8 months agoadcl2 aminodeoxychorismate lyase2:
3.00
GRMZM2G087103
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: January 14th, 2021
Gene Model: March 24th, 2020
8 months agobm6 brown midrib6:
 
   Leonard, AL et al. 2022. The maize brown midrib6 (bm6) mutation encodes a functional GTP Cyclohydrolase1 Maydica. 66:17.   AT3G07270 (TAIR) Reference: September 1st, 2023
Gene Product: January 14th, 2021
Variation: September 1st, 2023
8 months agodhar2 dehydroascorbate reductase like2:
 
GRMZM2G005710
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: March 28th, 2013
Gene Model: August 14th, 2017
8 months agonas8 nicotianamine synthase8:
 
GRMZM2G312481
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: July 26th, 2013
Gene Model: July 26th, 2013
8 months agonas10 nicotianamine synthase10:
 
GRMZM2G034956
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: July 26th, 2013
Gene Model: July 26th, 2013
8 months agoppck1 phosphoenolpyruvate carboxylase kinase1:
 
GRMZM2G178074
Hao, YF et al. 2023. Genetic and Transcriptomic Dissection of Host Defense to Goss's Bacterial Wilt and Leaf Blight of Maize. G3. :doi: 10.1093/g3journal/jkad197.     Reference: September 1st, 2023
Gene Product: September 1st, 2003
Gene Model: August 7th, 2014
8 months agoftcl1 5-formyltetrahydrofolate cyclo-ligase1:
 
GRMZM2G001904
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: August 20th, 2014
Gene Model: August 20th, 2014
8 months agofgp2 folylpolyglutamate synthetase2:
 
GRMZM5G869779
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: December 17th, 2014
Variation: December 17th, 2014
Gene Model: December 17th, 2014
8 months agomate3 multidrug and toxic compound extrusion3:
 
GRMZM2G163154
Hou, QC et al. 2022. Plants 11:627   LOC_Os03g11734 (MSU/TIGR) Reference: September 1st, 2023
Gene Product: August 17th, 2015
Gene Model: August 17th, 2015
8 months agoss5 starch synthase5:
 
GRMZM2G130043
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: October 14th, 2016
Gene Model: December 5th, 2015
8 months agotom3 transporter of mugineic acid3:
 
GRMZM2G141081
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: September 23rd, 2016
Gene Model: September 23rd, 2016
8 months agoglpdh3 glycerol-3-phosphate dehydrogenase3:
 
GRMZM2G173195
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: July 12th, 2018
Gene Model: July 11th, 2018
8 months agoglpdh4 glycerol-3-phosphate dehydrogenase4:
 
   Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: July 12th, 2018
8 months agoglpdh5 glycerol-3-phosphate dehydrogenase5:
 
GRMZM2G063258
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: July 12th, 2018
Gene Model: July 11th, 2018
8 months agoglpdh6 glycerol-3-phosphate dehydrogenase6:
 
GRMZM2G446108
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: July 12th, 2018
Gene Model: July 11th, 2018
8 months agoss7 starch synthase7:
 
   Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: October 14th, 2016
8 months agodgati2 diacylglycerol acyltransferase-typeI2:
 
GRMZM2G130749
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: August 12th, 2018
Gene Model: July 23rd, 2018
8 months agoadcs1 aminodeoxychorismate synthase1:
 
GRMZM2G416386
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: January 14th, 2021
Gene Model: October 23rd, 2018
8 months agopap2 purple acid phosphatase2:
 
GRMZM2G134054
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: November 21st, 2018
Gene Model: November 21st, 2018
8 months agogpat14 glycerol-3-phosphate acyltransferase14:
 
GRMZM2G123987
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: March 25th, 2019
Gene Model: March 25th, 2019
8 months agogpat19 glycerol-3-phosphate acyltransferase19:
 
GRMZM2G165681
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: March 25th, 2019
Gene Model: April 25th, 2019
8 months agozip8 zinc-regulated, iron-regulated transporter-like protein8:
 
GRMZM2G093276
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: June 5th, 2019
Gene Model: June 5th, 2019
8 months agohma2 heavy metal ATPase2:
 
GRMZM2G099191
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: October 23rd, 2019
Gene Model: October 23rd, 2019
8 months agoss3 starch synthase3:
 
GRMZM2G121612
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: October 14th, 2016
Gene Model: March 20th, 2020
8 months agoss2 starch synthase3:
 
GRMZM5G897776
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: October 14th, 2016
Gene Model: March 20th, 2020
8 months agosaur24 small auxin up RNA24:
 
GRMZM2G479596
Hao, YF et al. 2023. Genetic and Transcriptomic Dissection of Host Defense to Goss's Bacterial Wilt and Leaf Blight of Maize. G3. :doi: 10.1093/g3journal/jkad197.     Reference: September 1st, 2023
Gene Product: November 26th, 2021
Gene Model: April 3rd, 2020
8 months agomips2 myo-inositol phosphate synthase2:
 
GRMZM2G004528
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: July 13th, 2019
Gene Model: May 8th, 2020
8 months agopao5 polyamine oxidase5:
 
GRMZM2G035994
Hassani, SB et al. 2023. Response to Cadmium Toxicity: Orchestration of Polyamines and microRNAs in Maize Plant. 12:1991.     Reference: September 1st, 2023
Gene Product: June 10th, 2020
Gene Model: June 9th, 2020
8 months agonye2 non-yellowing2:
 
GRMZM2G379563
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: August 26th, 2020
Gene Model: August 26th, 2020
8 months agogpp1 galactose-1-phosphate phosphatase1:
 
GRMZM2G034417
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: October 21st, 2020
Gene Model: October 21st, 2020
8 months agofad1 fatty acid desaturase1:
 
GRMZM2G064701
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: November 27th, 2020
Gene Model: November 27th, 2020
8 months agogch2 GTP cyclohydrolase2:
 
GRMZM2G106376
Leonard, AL et al. 2022. The maize brown midrib6 (bm6) mutation encodes a functional GTP Cyclohydrolase1 Maydica. 66:17.     Reference: September 1st, 2023
Gene Product: January 14th, 2021
Gene Model: January 14th, 2021
8 months agodhna1 dihydroneopterin aldolase1:
 
GRMZM2G015588
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: January 14th, 2021
Gene Model: January 14th, 2021
8 months agodhna2 dihydroneopterin aldolase2:
 
GRMZM2G095579
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: January 14th, 2021
Gene Model: January 14th, 2021
8 months agohppk1 hydroxymethyldihydropterin pyrophosphokinase1:
 
GRMZM2G095806
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: January 14th, 2021
Gene Model: January 14th, 2021
8 months agoadcl3 aminodeoxychorismate lyase3:
 
GRMZM2G069596
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: January 14th, 2021
Gene Model: January 14th, 2021
8 months agodhfs2 dihydrofolate synthetase2:
 
GRMZM2G169481
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: January 14th, 2021
Gene Model: January 14th, 2021
8 months agodrts1 bifunctional dihydrofolate reductase-thymidylate synthase1:
 
GRMZM2G072608
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: September 1st, 2003
Gene Model: January 14th, 2021
8 months agodrts2 bifunctional dihydrofolate reductase-thymidylate synthase2:
 
GRMZM2G421493
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: September 1st, 2003
Gene Model: January 14th, 2021
8 months agogcsh2 glycine cleavage system protein H2:
 
GRMZM2G010321
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: September 1st, 2003
Gene Model: January 14th, 2021
8 months agogcsh3 glycine cleavage system protein H3:
 
GRMZM2G051208
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: September 1st, 2003
Gene Model: January 14th, 2021
8 months agogcsh4 glycine cleavage system protein H4:
 
GRMZM2G020288
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: September 1st, 2003
Gene Model: January 14th, 2021
8 months agofold3 bifunctional protein FolD3:
 
AC233922.1_FG005
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: January 15th, 2021
Gene Model: January 14th, 2021
8 months agoftd1 formyltetrahydrofolate deformylase1:
 
GRMZM2G168281
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: January 14th, 2021
Gene Model: January 14th, 2021
8 months agofths1 formate--tetrahydrofolate ligase1:
 
GRMZM5G824944
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: January 14th, 2021
Gene Model: January 14th, 2021
8 months agoftcl2 5-formyltetrahydrofolate cyclo-ligase2:
 
GRMZM5G807835
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: August 20th, 2014
Gene Model: January 14th, 2021
8 months agofad9 fatty acid desaturase9:
 
GRMZM2G129209
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: November 27th, 2020
Gene Model: May 7th, 2021
8 months agosaur78 small auxin up RNA78:
 
GRMZM2G354209
Hao, YF et al. 2023. Genetic and Transcriptomic Dissection of Host Defense to Goss's Bacterial Wilt and Leaf Blight of Maize. G3. :doi: 10.1093/g3journal/jkad197.     Reference: September 1st, 2023
Gene Product: November 26th, 2021
Gene Model: November 26th, 2021
8 months agofad16 fatty acid desaturase16:
 
GRMZM2G161792
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: January 6th, 2022
Gene Model: January 6th, 2022
8 months agofad18 fatty acid desaturase18:
 
GRMZM2G174766
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: January 6th, 2022
Gene Model: January 6th, 2022
8 months agofad3 fatty acid desaturase3:
 
GRMZM2G354558
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: November 27th, 2020
Gene Model: January 6th, 2022
8 months agotom8 transporter of mugineic acid8:
 
GRMZM2G456923
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: September 23rd, 2016
Gene Model: January 18th, 2022
8 months agofold2 bifunctional protein FolD2:
8.05
GRMZM2G150485
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: January 15th, 2021
Gene Model: September 1st, 2019
8 months agonas1 nicotianamine synthase1:
9.04
GRMZM2G385200
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: July 26th, 2013
Variation: March 19th, 2008
Gene Model: July 26th, 2013
8 months agogaldh1 galactose dehydrogenase1:
10.03
GRMZM2G126002
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: October 21st, 2020
Gene Model: June 29th, 2020
8 months agogme1 GDP-mannose-3'5'-epimerase1:
1.08
GRMZM2G124434
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: October 21st, 2020
Variation: March 31st, 2005
Gene Model: February 14th, 2019
8 months agoshmt1 serine hydroxymethyltransferase1:
1.10
GRMZM2G135283
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: September 1st, 2003
Variation: March 31st, 2005
Gene Model: February 13th, 2019
8 months agoIDP871  :
1.02
AC166636.1_FG008
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Variation: March 31st, 2005
Gene Model: February 11th, 2019
8 months agoammt1 aminomethyltransferase1:
2.02
GRMZM5G876898
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: January 14th, 2021
Variation: March 31st, 2005
Gene Model: February 18th, 2019
8 months agohmt1 homocysteine S-methyltransferase 1:
 
   Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: July 19th, 2004
Variation: June 3rd, 2017
8 months agozmm27 Zea mays MADS27:
2.07
GRMZM2G129034
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Variation: February 2nd, 2011
Gene Model: July 2nd, 2014
8 months agonas3 nicotianamine synthase 3:
1.09
GRMZM2G478568
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: July 26th, 2013
Variation: March 19th, 2008
Gene Model: July 26th, 2013
8 months agogme2 GDP-mannose-3'5'-epimerase2:
4.02
GRMZM2G138907
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: October 21st, 2020
Variation: September 25th, 2007
Gene Model: April 11th, 2020
8 months agoadcl1 aminodeoxychorismate lyase1:
1.04
GRMZM2G108416
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: January 14th, 2021
Gene Model: February 7th, 2020
8 months agonaat4 nicotianamine aminotransferase4:
5.04
GRMZM2G412604
Hou, QC et al. 2022. Plants 11:627     Reference: September 1st, 2023
Gene Product: January 18th, 2022
Gene Model: May 17th, 2020
8 months agodhfs1 dihydrofolate synthetase1:
10.03
GRMZM2G304915
Lian, T et al. 2015. BMC Plant Biology 15:204     Reference: September 1st, 2023
Gene Product: January 14th, 2021
Gene Model: June 30th, 2020
8 months agogly1 glycine1:
5.03
GRMZM2G078143
Lian, T et al. 2022. Int J Mol Sci 23:1708     Reference: September 1st, 2023
Gene Product: September 1st, 2003
Variation: May 26th, 2015
Gene Model: May 26th, 2015
8 months agorida1 reactive Intermediate deaminase A homolog1:
 
   Niehaus, T et al. 2014. Arabidopsis and maize RidA proteins preempt reactive enamine/imine damage to branched-chain amino acid biosynthesis in plastids. Plant Cell. 26:3010-22.   At3g20390 (TAIR) Reference: August 31st, 2023
Gene Product: August 31st, 2023
8 months agoGRMZM2G155323  :
 
   Niehaus, T et al. 2014. Arabidopsis and maize RidA proteins preempt reactive enamine/imine damage to branched-chain amino acid biosynthesis in plastids. Plant Cell. 26:3010-22.     Reference: August 31st, 2023
Gene Product: August 31st, 2023
8 months agoZm00001eb404340  :
 
   Niehaus, T et al. 2014. Arabidopsis and maize RidA proteins preempt reactive enamine/imine damage to branched-chain amino acid biosynthesis in plastids. Plant Cell. 26:3010-22.   AT5G65780 (TAIR)
LOC_Os03g01600 (MSU/TIGR)
Reference: August 31st, 2023
Gene Product: August 31st, 2023
8 months agopco098993  :
1.05
GRMZM2G071208
Niehaus, T et al. 2014. Arabidopsis and maize RidA proteins preempt reactive enamine/imine damage to branched-chain amino acid biosynthesis in plastids. Plant Cell. 26:3010-22.     Reference: August 31st, 2023
Gene Product: August 31st, 2023
Gene Model: February 8th, 2020
8 months agopia1 postmeiotic irregular anther1:
 
   Yujie Lian et al. 2023. Postmeiotic irregular anther1 (PIA1) is required for anther cuticle and pollen exine development in maize (Zea mays L.) Plant Breed. :doi: 10.1111/pbr.13139.     Reference: August 30th, 2023
Variation: August 30th, 2023
8 months agoopr2 12-oxo-phytodienoic acid reductase2:
8.05
GRMZM2G000236
Huang, PC et al. 2023. Maize OPR2 and LOX10 Mediate Defense against Fall Armyworm and Western Corn Rootworm by Tissue-Specific Regulation of Jasmonic Acid and Ketol Metabolism Genes. 14:1732.     Reference: August 30th, 2023
Gene Product: September 3rd, 2010
Variation: January 30th, 2023
Gene Model: November 27th, 2013
8 months agoglk58 G2-like-transcription factor 58:
6.06
GRMZM2G117854
Ruidong Sun et al. 2023. Identification of QTLs and their candidate genes for the number of maize tassel branches in F2 from two higher generation sister lines using QTL mapping and RNA-seq analysis. Frontiers in Plant Science. 14:1202755.     Reference: August 29th, 2023
Gene Product: July 25th, 2017
Variation: July 11th, 2019
Gene Model: February 2nd, 2018
8 months agoIDP2396b  :
6.06
GRMZM2G129031
Ruidong Sun et al. 2023. Identification of QTLs and their candidate genes for the number of maize tassel branches in F2 from two higher generation sister lines using QTL mapping and RNA-seq analysis. Frontiers in Plant Science. 14:1202755.     Reference: August 29th, 2023
Variation: March 31st, 2005
Gene Model: July 3rd, 2021
8 months agocki7 cyclin-dependent kinase inhibitor7:
 
GRMZM2G343769
Li, ZY et al. 2023. Genomic analysis of a new heterotic maize group reveals key loci for pedigree breeding. Frontiers in Plant Science. 14:1213675.     Reference: August 28th, 2023
Gene Product: March 8th, 2017
Gene Model: March 7th, 2017
8 months agoincw5 invertase cell wall5:
 
GRMZM2G095725
Li, ZY et al. 2023. Genomic analysis of a new heterotic maize group reveals key loci for pedigree breeding. Frontiers in Plant Science. 14:1213675.   LOC_Os04g33740 (MSU/TIGR) Reference: August 28th, 2023
Gene Product: June 12th, 2018
Variation: August 16th, 2017
Gene Model: August 16th, 2017
8 months agoZm00001d042795  :
 
   Xi Wang et al. 2023. QTG-Miner aids rapid dissection of the genetic base of tassel branch number in maize Nat Commun. 14:5232.     Reference: August 26th, 2023
Variation: August 26th, 2023
8 months agoIDP2392  :
10.04
GRMZM2G155543
Xi Wang et al. 2023. QTG-Miner aids rapid dissection of the genetic base of tassel branch number in maize Nat Commun. 14:5232.     Reference: August 26th, 2023
Variation: March 31st, 2005
Gene Model: January 1st, 2018
8 months agopfk5 phosphofructose kinase5:
 
   Yuanyuan Wang et al. 2023. Heat-dependent postpollination limitations on maize pollen tube growth and kernel sterility. Plant Cell Environ. :doi: 10.1111/pce.14702.     Reference: August 25th, 2023
Gene Product: August 12th, 2016
8 months agopfk7 phosphofructose kinase7:
3.07
GRMZM5G879882
Yuanyuan Wang et al. 2023. Heat-dependent postpollination limitations on maize pollen tube growth and kernel sterility. Plant Cell Environ. :doi: 10.1111/pce.14702.     Reference: August 25th, 2023
Gene Product: August 12th, 2016
Gene Model: May 16th, 2021
8 months agopfk6 phosphofructose kinase6:
3.02
GRMZM2G132069
Yuanyuan Wang et al. 2023. Heat-dependent postpollination limitations on maize pollen tube growth and kernel sterility. Plant Cell Environ. :doi: 10.1111/pce.14702.     Reference: August 25th, 2023
Gene Product: August 12th, 2016
Gene Model: November 28th, 2021
8 months agoeif4 eucaryotic initiation factor4:
5.03
GRMZM2G116034
Laura Cuyas et al. 2023. Identification and interest of molecular markers to monitor plant Pi status. BMC Plant Biology. 23:401.     Reference: August 24th, 2023
Gene Product: September 1st, 2003
Variation: February 24th, 2014
Gene Model: January 15th, 2015
8 months agohcf102 high chlorophyll fluorescence102:
8.04 - 8.09
   Miles, CD. Personal communication     Reference: August 24th, 2023
Variation: September 1st, 2003
8 months agohcf49 high chlorophyll fluorescence49:
 
   Miles, CD. Personal communication     Reference: August 24th, 2023
Variation: September 1st, 2003
8 months agospx2 SPX domain-containing membrane protein2:
 
GRMZM2G024705
Laura Cuyas et al. 2023. Identification and interest of molecular markers to monitor plant Pi status. BMC Plant Biology. 23:401.     Reference: August 24th, 2023
Gene Product: October 9th, 2021
Gene Model: October 9th, 2021
8 months agogsr2 glutathione reductase2:
5.08
GRMZM5G806449
Saghir Abbas et al. 2023. Exogenously applied sodium nitroprusside alleviates nickel toxicity in maize by regulating antioxidant activities and defense-related gene expression. Physiol Plant. 175:e13985.     Reference: August 24th, 2023
Gene Product: September 1st, 2003
Gene Model: May 25th, 2020
8 months agocrs1 chloroplast RNA splicing1:
1.07
GRMZM2G078412
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   AT5G16180 (TAIR)
LOC_Os08g27150 (MSU/TIGR)
Os08g0360100 (Gramene)
Reference: August 23rd, 2023
Gene Product: July 22nd, 2009
Variation: October 13th, 2021
Gene Model: July 14th, 2011
8 months agocrs2 chloroplast RNA splicing2:
8.02
GRMZM2G132021
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   AT5G16140 (TAIR)
LOC_Os01g04130 (MSU/TIGR)
Os01g0132800 (Gramene)
Reference: August 23rd, 2023
Gene Product: December 24th, 2015
Variation: August 17th, 2011
Gene Model: July 15th, 2011
8 months agobnlg609  :
5.06
GRMZM2G076313
Lihua Jia et al. 2023. Genome-Wide Identification and Functional Analysis of Nitrate Transporter Genes (NPF, NRT2 and NRT3) in Maize Int J Mol Sci. 24:12941.     Reference: August 23rd, 2023
Variation: September 1st, 2003
Gene Model: July 12th, 2018
8 months agocsy1 chloroplast SecY-1:
5.03
   Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   AT2G18710 (TAIR)
LOC_Os08g15460 (MSU/TIGR)
Os08g0254500 (Gramene)
Reference: August 23rd, 2023
Gene Product: July 22nd, 2009
Variation: July 23rd, 2011
8 months agopgl104 polygalacturonase104:
1.11
GRMZM2G092758
Yangyang Li et al. 2023. Coordinated regulation of sucrose and lignin metabolism for arrested silk elongation under drought stress in maize Environ Exp Bot. :doi: 10.1016/j.envexpbot.2023.105482.     Reference: August 23rd, 2023
Gene Product: October 4th, 2021
Gene Model: April 10th, 2021
8 months agoakr1 aldo/keto reductase AKR1:
6.01
GRMZM2G052812
Mehak Sethi et al. 2023. Unravelling the genetic framework associated with grain quality and yield-related traits in maize (Zea mays L.). 14:1248697.     Reference: August 23rd, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: December 24th, 2015
8 months agohcf1 high chlorophyll fluorescence1:
2.05 - 2.10
   Miles, D. 1994. Maydica 39:35-45     Reference: August 23rd, 2023
Variation: September 1st, 2003
8 months agohcf101 high chlorophyll fluorescence101:
7.02 - 7.06
   Miles, D. 1994. Maydica 39:35-45     Reference: August 23rd, 2023
Variation: September 1st, 2003
8 months agohcf103 high chlorophyll fluorescence103:
7.02 - 7.06
   Miles, D. 1994. Maydica 39:35-45     Reference: August 23rd, 2023
Variation: September 1st, 2003
8 months agohcf104 high chlorophyll fluorescence104:
7.02 - 7.06
   Miles, D. 1994. Maydica 39:35-45     Reference: August 23rd, 2023
Variation: September 1st, 2003
8 months agohcf106 high chlorophyll fluorescence106:
2.04
   Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016     Reference: August 23rd, 2023
Gene Product: September 1st, 2003
Variation: December 17th, 2012
8 months agohcf108 high chlorophyll fluorescence108:
5.01
   Miles, D. 1994. Maydica 39:35-45     Reference: August 23rd, 2023
Variation: September 1st, 2003
8 months agohcf19 high chlorophyll fluorescence19:
3.06
   Miles, D. 1994. Maydica 39:35-45     Reference: August 23rd, 2023
Variation: May 19th, 2006
8 months agohcf2 high chlorophyll fluorescence2:
1.06 - 1.08
   Miles, D. 1994. Maydica 39:35-45     Reference: August 23rd, 2023
Variation: September 1st, 2003
8 months agohcf3 high chlorophyll fluorescence3:
1.03
GRMZM2G121960
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016     Reference: August 23rd, 2023
Gene Product: December 1st, 2015
Variation: August 19th, 2020
Gene Model: December 1st, 2015
8 months agohcf38 high chlorophyll fluorescence38:
5.04 - 5.09
   Miles, D. 1994. Maydica 39:35-45     Reference: August 23rd, 2023
Variation: May 19th, 2006
8 months agohcf42 high chlorophyll fluorescence42:
9.03 - 9.08
   Miles, D. 1994. Maydica 39:35-45     Reference: August 23rd, 2023
Variation: September 1st, 2003
8 months agohcf44 high chlorophyll fluorescence44:
1.06 - 1.12
   Miles, D. 1994. Maydica 39:35-45     Reference: August 23rd, 2023
Variation: September 1st, 2003
8 months agohcf50 high chlorophyll fluorescence50:
1.06 - 1.07
   Miles, D. 1994. Maydica 39:35-45     Reference: August 23rd, 2023
Variation: September 1st, 2003
8 months agohcf6 high chlorophyll fluorescence6:
1.00 - 1.05
   Miles, D. 1994. Maydica 39:35-45     Reference: August 23rd, 2023
Variation: September 1st, 2003
8 months agowtf1 what's this factor1:
8.03
GRMZM2G403797
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   AT4G01037 (TAIR)
LOC_Os05g49610 (MSU/TIGR)
Os05g0571100 (Gramene)
Reference: August 23rd, 2023
Gene Product: July 21st, 2009
Variation: May 9th, 2009
Gene Model: July 15th, 2011
8 months agowhy1 WHIRLY-transcription factor 1:
6.01
GRMZM2G155662
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   AT1G14410 (TAIR)
LOC_Os06g05350 (MSU/TIGR)
Os06g0145800 (Gramene)
Reference: August 23rd, 2023
Gene Product: November 18th, 2021
Variation: July 1st, 2013
Gene Model: July 14th, 2011
8 months agoppr5 pentatricopeptide repeat 5:
4.08
GRMZM2G025409
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   AT4G39620 (TAIR)
LOC_Os02g51480 (MSU/TIGR)
Os02g0750400 (Gramene)
Reference: August 23rd, 2023
Gene Product: September 15th, 2012
Variation: August 5th, 2011
Gene Model: July 14th, 2011
8 months agoij1 iojap striping1:
7.03
   Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016     Reference: August 23rd, 2023
Gene Product: September 1st, 2003
Variation: November 28th, 2012
8 months agooy1 oil yellow1:
10.02
   Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016     Reference: August 23rd, 2023
Gene Product: June 8th, 2007
Variation: March 17th, 2011
8 months agosm1 salmon silks1:
6.05 - 6.05
GRMZM2G031311
Yangyang Li et al. 2023. Coordinated regulation of sucrose and lignin metabolism for arrested silk elongation under drought stress in maize Environ Exp Bot. :doi: 10.1016/j.envexpbot.2023.105482.     Reference: August 23rd, 2023
Gene Product: May 26th, 2016
Variation: May 26th, 2016
Gene Model: May 26th, 2016
8 months agow2 white seedling2:
10.07 - 10.07
GRMZM2G480171
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016     Reference: August 23rd, 2023
Gene Product: September 19th, 2012
Variation: June 8th, 2019
Gene Model: September 19th, 2012
8 months agolpe1 leaf permease1:
1.09
GRMZM5G858417
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016     Reference: August 23rd, 2023
Gene Product: September 1st, 2003
Variation: March 29th, 2012
Gene Model: February 17th, 2015
8 months agonpf13 nitrate transporter/peptide transporter family13:
2.08
GRMZM2G127134
Lihua Jia et al. 2023. Genome-Wide Identification and Functional Analysis of Nitrate Transporter Genes (NPF, NRT2 and NRT3) in Maize Int J Mol Sci. 24:12941.     Reference: August 23rd, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: January 29th, 2022
8 months agocsr1 chloroplast srp54 receptor1:
10.06
   Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   AT2G45770 (TAIR)
LOC_Os01g72800 (MSU/TIGR)
Os01g0958100 (Gramene)
Reference: August 23rd, 2023
Gene Product: July 23rd, 2009
Variation: July 23rd, 2009
8 months agopsa1 photosystemI1:
6.02
GRMZM2G100976
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016     Reference: August 23rd, 2023
Variation: November 10th, 2020
Gene Model: April 4th, 2017
8 months agoptac12 plastid transcriptionally active chromosome 12 homolog:
 
GRMZM5G897926
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   At2g34640 (TAIR) Reference: August 23rd, 2023
Gene Product: December 4th, 2015
Variation: January 21st, 2015
Gene Model: January 21st, 2015
8 months agoera1 E. coli Ras-like protein1:
8.03 - 8.03
GRMZM2G158024
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016     Reference: August 23rd, 2023
Variation: November 10th, 2020
Gene Model: February 17th, 2015
8 months agopet2 photosynthetic electron transport2:
 
GRMZM2G087063
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   At5g52110 (TAIR)
LOC_Os10g37840 (MSU/TIGR)
Os10g0522500 (Gramene)
Reference: August 23rd, 2023
Gene Product: May 11th, 2021
Variation: August 19th, 2020
Gene Model: April 19th, 2011
8 months agopet3 photosynthetic electron transport3:
 
GRMZM2G177145
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   AT1G59840 (TAIR)
LOC_Os04g55690 (MSU/TIGR)
Reference: August 23rd, 2023
Gene Product: May 11th, 2021
Variation: September 1st, 2003
Gene Model: September 6th, 2011
8 months agocrp1 chloroplast RNA processing1:
7.03 - 7.06
   Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   AT5G42310 (TAIR)
LOC_Os07g36390 (MSU/TIGR)
Os07g0548300 (Gramene)
Reference: August 23rd, 2023
Gene Product: December 27th, 2016
Variation: July 23rd, 2009
8 months agocps1 chloroplast protein synthesis1:
1.06 - 1.12
GRMZM2G156565
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016     Reference: August 23rd, 2023
Gene Product: October 3rd, 2011
Variation: September 15th, 2011
Gene Model: September 6th, 2011
8 months agotha1 thylakoid assembly1:
3.04
GRMZM5G880102
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   AT4G01800 (TAIR)
LOC_Os01g21820 (MSU/TIGR)
Os01g0321300 (Gramene)
Reference: August 23rd, 2023
Gene Product: July 22nd, 2009
Variation: June 25th, 2004
Gene Model: April 3rd, 2020
8 months agorh4 RNA helicase4:
 
GRMZM2G163072
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   At5g26742 (TAIR)
LOC_Os03g61220 (MSU/TIGR)
Os03g0827700 (Gramene)
Reference: August 23rd, 2023
Gene Product: December 13th, 2022
Variation: November 10th, 2020
Gene Model: May 17th, 2012
8 months agomterf4 mTERF-domain protein4:
 
   Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   At4g02990 (TAIR) Reference: August 23rd, 2023
Gene Product: December 15th, 2015
Variation: February 14th, 2014
8 months agoprc3 proteasome component3:
1.01
GRMZM2G472167
Lihua Jia et al. 2023. Genome-Wide Identification and Functional Analysis of Nitrate Transporter Genes (NPF, NRT2 and NRT3) in Maize Int J Mol Sci. 24:12941.     Reference: August 23rd, 2023
Gene Product: September 1st, 2003
Variation: April 28th, 2011
Gene Model: May 7th, 2013
8 months agoprpo1 protoporphyrinogen IX oxidase1:
8.01
GRMZM2G039396
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016     Reference: August 23rd, 2023
Gene Product: December 17th, 2014
Variation: December 30th, 2015
Gene Model: December 1st, 2014
8 months agoepr4 endochitinase precursor4:
 
GRMZM2G129189
Yangyang Li et al. 2023. Coordinated regulation of sucrose and lignin metabolism for arrested silk elongation under drought stress in maize Environ Exp Bot. :doi: 10.1016/j.envexpbot.2023.105482.     Reference: August 23rd, 2023
Gene Product: May 31st, 2021
Variation: July 14th, 2016
Gene Model: July 14th, 2016
8 months agocps5 chloroplast protein synthesis5:
8.02
GRMZM2G566786
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016     Reference: August 23rd, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: April 12th, 2017
8 months agopsb1 photosystem II1:
6.01 - 6.08
GRMZM2G102838
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016     Reference: August 23rd, 2023
Variation: July 8th, 2015
Gene Model: February 17th, 2015
8 months agoppr2 pentatricopeptide repeat 2:
7.00
GRMZM2G341621
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   AT3G06430 (TAIR)
LOC_Os03g19650 (MSU/TIGR)
Os03g0309800 (Gramene)
Reference: August 23rd, 2023
Gene Product: July 23rd, 2009
Variation: July 23rd, 2009
Gene Model: July 14th, 2011
8 months agocaf2 crs2 associated factor2:
3.04
AC199526.5_FG003
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   AT1G23400 (TAIR)
LOC_Os01g21990 (MSU/TIGR)
Os01g0323300 (Gramene)
Reference: August 23rd, 2023
Gene Product: July 23rd, 2009
Variation: July 22nd, 2009
Gene Model: July 14th, 2011
8 months agocaf1 crs2 associated factor1:
7.02
GRMZM2G083950
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   AT2G20020 (TAIR)
LOC_Os01g31110 (MSU/TIGR)
Os01g0495900 (Gramene)
Reference: August 23rd, 2023
Gene Product: July 23rd, 2009
Variation: July 23rd, 2009
Gene Model: July 14th, 2011
8 months agoccs1 C-type cytochrome synthesis protein1:
1.10
GRMZM2G038301
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016     Reference: August 23rd, 2023
Variation: August 9th, 2021
Gene Model: August 9th, 2021
8 months agoycf54 ycf54 homolog:
1.04
GRMZM2G010196
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016     Reference: August 23rd, 2023
Variation: November 10th, 2020
Gene Model: February 17th, 2015
8 months agohcf148 high chlorophyll fluorescence148:
3.06
GRMZM2G002165
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016     Reference: August 23rd, 2023
Variation: November 25th, 2020
Gene Model: February 17th, 2015
8 months agotha4 thylakoid assembly4:
1.08
GRMZM2G472651
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   AT5G28750 (TAIR)
LOC_Os03g43430 (MSU/TIGR)
Os03g0634000 (Gramene)
Reference: August 23rd, 2023
Gene Product: July 22nd, 2009
Variation: August 13th, 2011
Gene Model: July 14th, 2011
8 months agotha5 thylakoid assembly5:
 
GRMZM2G300408
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   AT4G14870 (TAIR)
LOC_Os08g30830 (MSU/TIGR)
Os08g0399050 (Gramene)
Reference: August 23rd, 2023
Gene Product: April 21st, 2011
Variation: August 26th, 2010
Gene Model: April 12th, 2011
8 months agotha8 thylakoid assembly8:
2.06
AC217965.2_FG012
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016     Reference: August 23rd, 2023
Variation: May 9th, 2009
Gene Model: July 15th, 2011
8 months agocf1 camouflage1:
5.04
   Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   AT5G08280 (TAIR)
LOC_Os02g0168800 (MSU/TIGR)
Reference: August 23rd, 2023
Gene Product: December 8th, 2014
Variation: September 9th, 2009
8 months agocrp4 chloroplast RNA processing4:
 
GRMZM2G377761
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   AT3G03710 (TAIR)
LOC_Os07g07310 (MSU/TIGR)
Os07g0168000 (Gramene)
Reference: August 23rd, 2023
Gene Product: April 12th, 2011
Variation: April 21st, 2011
Gene Model: April 12th, 2011
8 months agoatp4 ATP synthase4:
 
GRMZM2G128665
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016     Reference: August 23rd, 2023
Gene Product: December 30th, 2015
Variation: June 15th, 2013
Gene Model: June 15th, 2013
8 months agoptac2 plastid transcriptionally active chromosome homolog2:
 
GRMZM2G122116
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   At1g74850 (TAIR) Reference: August 23rd, 2023
Gene Product: December 30th, 2015
Variation: January 22nd, 2015
Gene Model: January 21st, 2015
8 months agomurE1 mureinE1:
 
GRMZM2G009070
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   At1g63680 (TAIR) Reference: August 23rd, 2023
Gene Product: April 19th, 2018
Variation: January 22nd, 2015
Gene Model: January 21st, 2015
8 months agoprin2 plastid redox insensitive2:
 
GRMZM2G119906
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   At1g10522 (TAIR) Reference: August 23rd, 2023
Variation: January 22nd, 2015
Gene Model: January 21st, 2015
8 months agoprda1 pep-related development arrested1 homolog:
 
GRMZM2G079452
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   AT5G48470 (TAIR)
LOC_Os11g23790 (MSU/TIGR)
Reference: August 23rd, 2023
Variation: November 10th, 2020
Gene Model: February 17th, 2015
8 months agopgr3 proton gradient regulation3 homolog:
 
GRMZM2G372632
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   AT4G31850 (TAIR)
LOC_Os10g28600 (MSU/TIGR)
Reference: August 23rd, 2023
Gene Product: December 27th, 2016
Variation: December 30th, 2015
Gene Model: February 17th, 2015
8 months agotab2 translation chloroplast psaB mRNA2 homolog:
 
GRMZM2G081955
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016     Reference: August 23rd, 2023
Variation: November 10th, 2020
Gene Model: February 17th, 2015
8 months agogun4 genomes uncoupled4 homolog:
 
GRMZM2G464328
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016     Reference: August 23rd, 2023
Variation: December 30th, 2015
Gene Model: February 17th, 2015
8 months agomha3 membrane H(+)-ATPase3:
 
GRMZM2G104325
Mehak Sethi et al. 2023. Unravelling the genetic framework associated with grain quality and yield-related traits in maize (Zea mays L.). 14:1248697.     Reference: August 23rd, 2023
Gene Product: September 1st, 2003
Variation: January 22nd, 2016
Gene Model: January 22nd, 2016
8 months agochn5 chitinase5:
 
GRMZM2G051921
Yangyang Li et al. 2023. Coordinated regulation of sucrose and lignin metabolism for arrested silk elongation under drought stress in maize Environ Exp Bot. :doi: 10.1016/j.envexpbot.2023.105482.     Reference: August 23rd, 2023
Gene Product: May 31st, 2021
Gene Model: September 16th, 2017
8 months agonpf7 nitrate transporter/peptide transporter family7:
 
GRMZM2G064091
Lihua Jia et al. 2023. Genome-Wide Identification and Functional Analysis of Nitrate Transporter Genes (NPF, NRT2 and NRT3) in Maize Int J Mol Sci. 24:12941.     Reference: August 23rd, 2023
Gene Product: September 1st, 2003
Gene Model: May 21st, 2019
8 months agonpf8 nitrate transporter/peptide transporter family8:
 
GRMZM2G476069
Lihua Jia et al. 2023. Genome-Wide Identification and Functional Analysis of Nitrate Transporter Genes (NPF, NRT2 and NRT3) in Maize Int J Mol Sci. 24:12941.     Reference: August 23rd, 2023
Gene Product: September 1st, 2003
Gene Model: May 21st, 2019
8 months agonpf9 nitrate transporter/peptide transporter family9:
 
GRMZM2G176253
Lihua Jia et al. 2023. Genome-Wide Identification and Functional Analysis of Nitrate Transporter Genes (NPF, NRT2 and NRT3) in Maize Int J Mol Sci. 24:12941.     Reference: August 23rd, 2023
Gene Product: September 1st, 2003
Gene Model: May 21st, 2019
8 months agolacs2 long chain acyl-CoA synthetase2:
 
GRMZM2G104847
XiuChen Wang et al. 2023. Genome-Wide Analysis of the Maize Lacs Gene Family and Functional Analysis of the Zmlacs9 Gene SSRN. :doi: 10.2139/ssrn.4548585.     Reference: August 23rd, 2023
Gene Product: October 31st, 2018
Gene Model: February 13th, 2020
8 months agonrt6 nitrate transport6:
 
GRMZM2G141491
Lihua Jia et al. 2023. Genome-Wide Identification and Functional Analysis of Nitrate Transporter Genes (NPF, NRT2 and NRT3) in Maize Int J Mol Sci. 24:12941.     Reference: August 23rd, 2023
Gene Product: September 1st, 2003
Gene Model: September 18th, 2020
8 months agocyp29 cytochrome P450 CYP71Z19:
 
GRMZM2G122654
Yangyang Li et al. 2023. Coordinated regulation of sucrose and lignin metabolism for arrested silk elongation under drought stress in maize Environ Exp Bot. :doi: 10.1016/j.envexpbot.2023.105482.     Reference: August 23rd, 2023
Gene Product: December 30th, 2022
Gene Model: October 27th, 2020
8 months agonpf12 nitrate transporter/peptide transporter family12:
 
GRMZM2G127134
Lihua Jia et al. 2023. Genome-Wide Identification and Functional Analysis of Nitrate Transporter Genes (NPF, NRT2 and NRT3) in Maize Int J Mol Sci. 24:12941.     Reference: August 23rd, 2023
Gene Product: September 1st, 2003
Gene Model: January 2nd, 2022
8 months agornc1 ribonuclease III domain protein1:
3.06
GRMZM2G035820
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   AT4G37510 (TAIR)
LOC_Os01g5951 (MSU/TIGR)
Os01g0810100 (Gramene)
Reference: August 23rd, 2023
Gene Product: July 22nd, 2009
Variation: October 18th, 2010
Gene Model: July 14th, 2011
8 months agoabcg11 ABC transporter G family member 11:
2.02
GRMZM2G177812
Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016     Reference: August 23rd, 2023
Gene Product: December 28th, 2015
Variation: December 30th, 2015
Gene Model: February 17th, 2015
8 months agoppr4 pentatricopeptide repeat 4:
 
   Belcher, S et al. 2015. Biochem Biophys Acta 1847:1004-1016   AT5G04810 (TAIR)
LOC_Os04g58780 (MSU/TIGR)
Os04g0684500 (Gramene)
Reference: August 23rd, 2023
Gene Product: September 15th, 2012
Variation: July 24th, 2009
8 months agocsu193  :
9.03
GRMZM2G019586
Liu, ZG et al. 2023. Hybrid performance evaluation and genome-wide association analysis of root system architecture in a maize association population. Theor Appl Genet. 136:194.     Reference: August 22nd, 2023
Variation: September 1st, 2003
Gene Model: January 14th, 2019
8 months agonbcs5 nucleobase:cation symporter5:
2.06
GRMZM2G100484
Liu, ZG et al. 2023. Hybrid performance evaluation and genome-wide association analysis of root system architecture in a maize association population. Theor Appl Genet. 136:194.     Reference: August 22nd, 2023
Gene Product: July 14th, 2018
Variation: July 29th, 2004
Gene Model: January 31st, 2018
8 months agoxt5 beta-1,4-xylosyltransferase5:
 
GRMZM5G898668
Liu, ZG et al. 2023. Hybrid performance evaluation and genome-wide association analysis of root system architecture in a maize association population. Theor Appl Genet. 136:194.     Reference: August 22nd, 2023
Gene Product: August 12th, 2022
Gene Model: July 2nd, 2020
8 months agoIDP88  :
8.03
GRMZM2G074103
Liu, ZG et al. 2023. Hybrid performance evaluation and genome-wide association analysis of root system architecture in a maize association population. Theor Appl Genet. 136:194.     Reference: August 22nd, 2023
Variation: March 31st, 2005
Gene Model: June 6th, 2020
8 months agoLOC542589  :
 
   Li, CP; Larkins, BA. 1995. Plant Physiol 109:339     Reference: August 21st, 2023
Gene Product: September 1st, 2003
8 months agotbp1 TATA-binding protein1:
1.09
GRMZM2G149238
Uyehara, AN et al. 2023. Cytokinin Promotes Jasmonic Acid Accumulation in the Control of Maize Leaf Growth Plants. 12:3014.     Reference: August 21st, 2023
Gene Product: September 1st, 2003
Variation: February 4th, 2015
Gene Model: February 4th, 2015
8 months agoelfg1 elongation factor gamma1:
6.04
   Huaijun Tang et al. 2023. QTL mapping for flowering time in a maize-teosinte population under well-watered and water-stressed conditions. Mol Breed. 43:67.     Reference: August 21st, 2023
Gene Product: October 22nd, 2022
Variation: July 9th, 2017
8 months agoaos4 allene oxide synthesis4:
 
GRMZM2G072653
Uyehara, AN et al. 2023. Cytokinin Promotes Jasmonic Acid Accumulation in the Control of Maize Leaf Growth Plants. 12:3014.     Reference: August 21st, 2023
Gene Product: September 1st, 2003
Gene Model: October 29th, 2015
8 months agoppr346 pentatricopeptide repeat protein346:
 
GRMZM2G129783
Huaijun Tang et al. 2023. QTL mapping for flowering time in a maize-teosinte population under well-watered and water-stressed conditions. Mol Breed. 43:67.     Reference: August 21st, 2023
Gene Product: December 27th, 2016
Gene Model: June 11th, 2018
8 months agoaas11 auxin amido synthetase11:
 
GRMZM2G162413
Uyehara, AN et al. 2023. Cytokinin Promotes Jasmonic Acid Accumulation in the Control of Maize Leaf Growth Plants. 12:3014.     Reference: August 21st, 2023
Gene Product: October 21st, 2019
Gene Model: October 21st, 2019
8 months agozim1 ZIM-transcription factor 1:
 
   Wang, L et al. 2023. Immature leaves are the dominant volatile-sensing organs of maize Curr Biol. :doi: 10.1016/j.cub.2023.07.045.     Reference: August 18th, 2023
Gene Product: February 24th, 2021
8 months agozim12 ZIM-transcription factor 12:
 
   Wang, L et al. 2023. Immature leaves are the dominant volatile-sensing organs of maize Curr Biol. :doi: 10.1016/j.cub.2023.07.045.     Reference: August 18th, 2023
Gene Product: February 24th, 2021
Variation: March 17th, 2021
8 months agozim32 ZIM-transcription factor 32:
 
   Wang, L et al. 2023. Immature leaves are the dominant volatile-sensing organs of maize Curr Biol. :doi: 10.1016/j.cub.2023.07.045.     Reference: August 18th, 2023
Gene Product: February 24th, 2021
Variation: February 17th, 2019
8 months agozim34 ZIM-transcription factor 34:
 
   Wang, L et al. 2023. Immature leaves are the dominant volatile-sensing organs of maize Curr Biol. :doi: 10.1016/j.cub.2023.07.045.     Reference: August 18th, 2023
Gene Product: February 24th, 2021
8 months agozim36 ZIM-transcription factor 36:
 
   Wang, L et al. 2023. Immature leaves are the dominant volatile-sensing organs of maize Curr Biol. :doi: 10.1016/j.cub.2023.07.045.     Reference: August 18th, 2023
Gene Product: February 24th, 2021
8 months agozim4 ZIM-transcription factor 4:
 
   Wang, L et al. 2023. Immature leaves are the dominant volatile-sensing organs of maize Curr Biol. :doi: 10.1016/j.cub.2023.07.045.     Reference: August 18th, 2023
Gene Product: February 24th, 2021
8 months agoumc2308  :
5.09
GRMZM5G848768
Wang, L et al. 2023. Immature leaves are the dominant volatile-sensing organs of maize Curr Biol. :doi: 10.1016/j.cub.2023.07.045.     Reference: August 18th, 2023
Variation: June 25th, 2021
Gene Model: July 15th, 2018
8 months agoech1 enoyl-CoA hydratase1:
8.03
GRMZM2G132903
Wang, L et al. 2023. Immature leaves are the dominant volatile-sensing organs of maize Curr Biol. :doi: 10.1016/j.cub.2023.07.045.     Reference: August 18th, 2023
Gene Product: September 1st, 2003
Variation: February 15th, 2014
Gene Model: July 27th, 2016
8 months agocoi1 coronatine insensitive1:
3.06
GRMZM2G125411
Wang, L et al. 2023. Immature leaves are the dominant volatile-sensing organs of maize Curr Biol. :doi: 10.1016/j.cub.2023.07.045.     Reference: August 18th, 2023
Gene Product: November 2nd, 2018
Gene Model: November 2nd, 2018
8 months agoopr5 12-oxo-phytodienoic acid reductase5:
2.04
GRMZM2G087192
Wang, L et al. 2023. Immature leaves are the dominant volatile-sensing organs of maize Curr Biol. :doi: 10.1016/j.cub.2023.07.045.     Reference: August 18th, 2023
Gene Product: September 3rd, 2010
Variation: July 21st, 2008
Gene Model: November 27th, 2013
8 months agoaos3 allene oxide synthesis3:
 
GRMZM2G376661
Wang, L et al. 2023. Immature leaves are the dominant volatile-sensing organs of maize Curr Biol. :doi: 10.1016/j.cub.2023.07.045.     Reference: August 18th, 2023
Gene Product: September 1st, 2003
Gene Model: October 29th, 2015
8 months agocyp20 cytochrome P-450 20:
 
GRMZM2G139467
Wang, L et al. 2023. Immature leaves are the dominant volatile-sensing organs of maize Curr Biol. :doi: 10.1016/j.cub.2023.07.045.     Reference: August 18th, 2023
Gene Product: September 26th, 2016
Gene Model: September 26th, 2016
8 months agopgip1 polygalacturonase-inhibiting protein1:
 
GRMZM2G333980
Kumar, R et al. 2023. Genetic architecture of source-sink-regulated senescence in maize. Plant Physiol. :doi: 10.1093/plphys/kiad460.     Reference: August 18th, 2023
Gene Product: September 4th, 2019
Gene Model: September 4th, 2019
8 months agoaas13 auxin amido synthetase13:
 
GRMZM2G091276
Wang, L et al. 2023. Immature leaves are the dominant volatile-sensing organs of maize Curr Biol. :doi: 10.1016/j.cub.2023.07.045.     Reference: August 18th, 2023
Gene Product: October 21st, 2019
Gene Model: October 21st, 2019
8 months agorh48 RNA helicase48:
 
GRMZM2G171801
Yang, Y-Z et al. 2023. The DEAD-box RNA helicase ZmRH48 is required for the splicing of multiple mitochondrial introns, mitochondrial complex biosynthesis, and seed development in maize. J Integr Plant Biol. :doi: 10.1111/jipb.13558.     Reference: August 18th, 2023
Gene Product: December 13th, 2022
Variation: August 18th, 2023
Gene Model: May 5th, 2020
8 months agocoi5 coronatine insensitive5:
 
GRMZM2G035314
Wang, L et al. 2023. Immature leaves are the dominant volatile-sensing organs of maize Curr Biol. :doi: 10.1016/j.cub.2023.07.045.     Reference: August 18th, 2023
Gene Product: November 2nd, 2018
Gene Model: January 20th, 2021
8 months agomyo1 myosin1:
3.09
AC155377.1_FG001
Kumar, R et al. 2023. Genetic architecture of source-sink-regulated senescence in maize. Plant Physiol. :doi: 10.1093/plphys/kiad460.     Reference: August 18th, 2023
Gene Product: September 1st, 2003
Variation: February 21st, 2008
Gene Model: March 3rd, 2015
8 months agouaz248a(his3)  :
1.04
GRMZM2G171387
Petroli, CD et al. 2023. Genetic variation among elite inbred lines suggests potential to breed for BNI-capacity in maize Sci. Rep.. 13:13422.     Reference: August 17th, 2023
Gene Product: September 1st, 2003
Variation: July 5th, 2017
Gene Model: July 5th, 2017
8 months agopgd2 6-phosphogluconate dehydrogenase2:
3.05
   Ivica Djalovic et al. 2023. Maize and heat stress: Physiological, genetic, and molecular insights. Plant Genome. :doi: 10.1002/tpg2.20378.     Reference: August 17th, 2023
Gene Product: December 16th, 2020
Variation: September 1st, 2003
8 months agorop1 Rho-related protein from plants 1:
5.07
GRMZM2G415327
Petroli, CD et al. 2023. Genetic variation among elite inbred lines suggests potential to breed for BNI-capacity in maize Sci. Rep.. 13:13422.     Reference: August 17th, 2023
Gene Product: April 1st, 2004
Variation: January 25th, 2011
Gene Model: January 1st, 2015
8 months agohsftf3 HSF-transcription factor 3:
 
   Ivica Djalovic et al. 2023. Maize and heat stress: Physiological, genetic, and molecular insights. Plant Genome. :doi: 10.1002/tpg2.20378.     Reference: August 17th, 2023
Gene Product: May 15th, 2020
8 months agoumc1702  :
4.05
GRMZM2G125529
Petroli, CD et al. 2023. Genetic variation among elite inbred lines suggests potential to breed for BNI-capacity in maize Sci. Rep.. 13:13422.     Reference: August 17th, 2023
Variation: September 1st, 2003
Gene Model: June 7th, 2018
8 months agopap30 purple acid phosphatase30:
 
GRMZM5G831009
Ivica Djalovic et al. 2023. Maize and heat stress: Physiological, genetic, and molecular insights. Plant Genome. :doi: 10.1002/tpg2.20378.     Reference: August 17th, 2023
Gene Product: November 21st, 2018
Gene Model: November 23rd, 2018
8 months agomrpa13 multidrug resistance protein associated13:
 
   Mengxue Qu et al. 2023. Differences of cadmium uptake and accumulation in roots of two maize varieties (Zea mays L.) Environ Sci Pollut Res. :doi: 10.1007/s11356-023-29340-9.     Reference: August 16th, 2023
Gene Product: July 11th, 2019
8 months agokip1 knotted interacting protein1:
1.09
   Yu, J et al. 2023. ZmBELL10 interacts with other ZmBELLs and recognizes specific motifs for transcriptional activation to modulate internode patterning in maize. New Phytol. :doi: 10.1111/nph.19192.     Reference: August 16th, 2023
Gene Product: January 3rd, 2008
Variation: January 2nd, 2008
8 months agohb38 Homeobox-transcription factor 38:
 
   Yu, J et al. 2023. ZmBELL10 interacts with other ZmBELLs and recognizes specific motifs for transcriptional activation to modulate internode patterning in maize. New Phytol. :doi: 10.1111/nph.19192.     Reference: August 16th, 2023
Variation: August 16th, 2023
8 months agohb84 Homeobox-transcription factor 84:
1.06
GRMZM2G099319
Yu, J et al. 2023. ZmBELL10 interacts with other ZmBELLs and recognizes specific motifs for transcriptional activation to modulate internode patterning in maize. New Phytol. :doi: 10.1111/nph.19192.     Reference: August 16th, 2023
Variation: December 30th, 2016
Gene Model: December 30th, 2016
8 months agohb36 Homeobox-transcription factor 36:
1.10
GRMZM2G396114
Yu, J et al. 2023. ZmBELL10 interacts with other ZmBELLs and recognizes specific motifs for transcriptional activation to modulate internode patterning in maize. New Phytol. :doi: 10.1111/nph.19192.     Reference: August 16th, 2023
Variation: January 3rd, 2017
Gene Model: January 3rd, 2017
8 months agohb30 Homeobox-transcription factor 30:
1.01
GRMZM2G327059
Yu, J et al. 2023. ZmBELL10 interacts with other ZmBELLs and recognizes specific motifs for transcriptional activation to modulate internode patterning in maize. New Phytol. :doi: 10.1111/nph.19192.     Reference: August 16th, 2023
Variation: July 26th, 2016
Gene Model: July 26th, 2016
8 months agoole2 oleosin2:
5.02
   Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
8 months agophi069  :
7.05
GRMZM2G448739
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: September 1st, 2003
Gene Model: September 12th, 2018
8 months agobnlg197  :
3.06
GRMZM5G851026
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: September 1st, 2003
Gene Model: March 22nd, 2018
8 months agobnlg1371  :
6.01
   Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: September 1st, 2003
8 months agobnlg1429  :
1.02
   Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: February 11th, 2019
8 months agobnlg1792  :
7.02
GRMZM2G024615
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: September 1st, 2003
Gene Model: September 6th, 2018
8 months agodof5 C2C2-Dof-transcription factor 5:
8.05
GRMZM5G880268
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: September 20th, 2018
Gene Model: September 20th, 2018
8 months agoincw3 invertase cell wall3:
10.04
   Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Gene Product: June 12th, 2018
Variation: March 8th, 2022
8 months agoumc1154  :
7.05
GRMZM2G349655
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: September 1st, 2003
Gene Model: March 16th, 2021
8 months agoumc1156  :
2.06
GRMZM2G063643
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: September 1st, 2003
Gene Model: February 27th, 2021
8 months agoumc1245  :
1.07
GRMZM2G113781
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: September 1st, 2003
Gene Model: September 30th, 2016
8 months agoumc1279  :
9.00
GRMZM2G000623
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: September 1st, 2003
Gene Model: February 20th, 2020
8 months agoumc1288  :
4.02
GRMZM5G881498
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: March 18th, 2021
Gene Model: March 6th, 2021
8 months agoumc1304  :
8.02
GRMZM2G133552
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: September 1st, 2003
Gene Model: September 16th, 2018
8 months agoumc1296  :
6.07
GRMZM2G021406
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: August 29th, 2018
Gene Model: August 29th, 2018
8 months agoumc1444  :
6.01
GRMZM2G473788
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: September 1st, 2003
Gene Model: August 20th, 2018
8 months agoumc1472  :
1.04
GRMZM2G124576
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: November 9th, 2016
Gene Model: November 9th, 2016
8 months agoumc1500  :
1.11
GRMZM2G069218
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: September 1st, 2003
Gene Model: November 14th, 2016
8 months agoumc1551  :
2.09
GRMZM2G052507
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: September 1st, 2003
Gene Model: March 2nd, 2021
8 months agosbp3 SBP-domain protein3:
6.02
GRMZM2G101499
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Gene Product: July 5th, 2019
Variation: September 1st, 2003
Gene Model: December 18th, 2014
8 months agotcptf29 TCP-transcription factor 29:
8.09
GRMZM2G148022
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Gene Product: September 27th, 2019
Gene Model: September 24th, 2018
8 months agoumc1673  :
8.08
GRMZM2G139374
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: September 1st, 2003
Gene Model: September 24th, 2018
8 months agoumc1720  :
4.10
GRMZM2G165931
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: September 1st, 2003
Gene Model: March 8th, 2021
8 months agosaur1 small auxin up RNA1:
6.02
GRMZM2G466908
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: July 28th, 2016
8 months agopre2 premature senescence2:
4.09
GRMZM2G125342
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.   At1G72390 (TAIR) Reference: August 15th, 2023
Gene Product: December 30th, 2020
Variation: December 30th, 2020
Gene Model: June 9th, 2018
8 months agotcptf33 TCP-transcription factor 33:
3.01
AC205574.3_FG006
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Gene Product: September 27th, 2019
Gene Model: November 22nd, 2017
8 months agogst13 glutathione transferase13:
9.07
GRMZM2G126781
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Gene Product: September 1st, 2003
Variation: August 6th, 2010
Gene Model: July 27th, 2016
8 months agoumc2118  :
3.00 - 3.01
GRMZM5G884242
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: April 3rd, 2018
Gene Model: April 3rd, 2018
8 months agoidd12 indeterminate domain12:
3.09
GRMZM2G177693
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Gene Product: January 3rd, 2015
Gene Model: April 3rd, 2018
8 months agoglr1 glutamic acid- and lysine-rich1:
3.00
GRMZM2G123558
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Gene Product: September 4th, 2019
Gene Model: April 3rd, 2018
8 months agoumc2313  :
6.01
GRMZM2G063462
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: January 15th, 2021
Gene Model: August 19th, 2018
8 months agoumc1662  :
4.05
GRMZM2G145972
Shankarappa Varalakshmi et al. 2023. Marker–Trait Association for Protein Content among Maize Wild Accessions and Coix Using SSR Markers Agronomy. 13:2138.     Reference: August 15th, 2023
Variation: March 18th, 2021
Gene Model: April 13th, 2020
8 months agoZm00001d014532  :
 
   Kun Zhang et al. 2023. Natural polymorphisms in ZmIRX15A affect water-use efficiency by modulating stomatal density in maize. Plant Biotechnol J. :doi: 10.1111/pbi.14153.     Reference: August 13th, 2023
Variation: August 13th, 2023
9 months agolcd1 L-cysteine desulfhydrase1:
 
   Jiaqi Wang et al. 2023. The Essential Role of H2S-ABA Crosstalk in Maize Thermotolerance through the ROS-Scavenging System. Int J Mol Sci. 24:12264.     Reference: August 12th, 2023
Gene Product: November 24th, 2022
9 months agoNM_001366967  :
 
   Jiaqi Wang et al. 2023. The Essential Role of H2S-ABA Crosstalk in Maize Thermotolerance through the ROS-Scavenging System. Int J Mol Sci. 24:12264.     Reference: August 12th, 2023
Gene Product: November 24th, 2022
9 months agogrf2 general regulatory factor2:
10.04
GRMZM2G078641
Anna Fiorillo et al. 2023. 14-3-3 Proteins and the Plasma Membrane H+-ATPase Are Involved in Maize (Zea mays) Magnetic Induction. Plants. 12:2887.     Reference: August 12th, 2023
Gene Product: March 6th, 2023
Variation: June 5th, 2014
Gene Model: October 8th, 2015
9 months agoisca1 iron sulfur cluster assembly1:
3.04
GRMZM2G163996
Anna Fiorillo et al. 2023. 14-3-3 Proteins and the Plasma Membrane H+-ATPase Are Involved in Maize (Zea mays) Magnetic Induction. Plants. 12:2887.     Reference: August 12th, 2023
Gene Product: August 12th, 2023
Gene Model: May 11th, 2021
9 months agoga2ox1 gibberellin 2-oxidase1:
 
GRMZM2G078798
Anna Fiorillo et al. 2023. 14-3-3 Proteins and the Plasma Membrane H+-ATPase Are Involved in Maize (Zea mays) Magnetic Induction. Plants. 12:2887.     Reference: August 12th, 2023
Gene Product: October 27th, 2014
Variation: November 20th, 2012
Gene Model: November 20th, 2012
9 months agosod1 superoxide dismutase1:
 
GRMZM5G891739
Anna Fiorillo et al. 2023. 14-3-3 Proteins and the Plasma Membrane H+-ATPase Are Involved in Maize (Zea mays) Magnetic Induction. Plants. 12:2887.     Reference: August 12th, 2023
Gene Product: October 4th, 2021
Gene Model: June 17th, 2021
9 months agogrf1 general regulatory factor1:
2.04
   Anna Fiorillo et al. 2023. 14-3-3 Proteins and the Plasma Membrane H+-ATPase Are Involved in Maize (Zea mays) Magnetic Induction. Plants. 12:2887.     Reference: August 12th, 2023
Gene Product: March 6th, 2023
Variation: December 13th, 2012
9 months agocax1 calcium exchanger1:
4.08
GRMZM5G809587
Anna Fiorillo et al. 2023. 14-3-3 Proteins and the Plasma Membrane H+-ATPase Are Involved in Maize (Zea mays) Magnetic Induction. Plants. 12:2887.     Reference: August 12th, 2023
Variation: September 21st, 2012
Gene Model: July 27th, 2016
9 months agodar1 monodehydroascorbate reductase homolog1:
2.06
GRMZM2G084881
Jiaqi Wang et al. 2023. The Essential Role of H2S-ABA Crosstalk in Maize Thermotolerance through the ROS-Scavenging System. Int J Mol Sci. 24:12264.     Reference: August 12th, 2023
Gene Product: September 1st, 2003
Variation: November 17th, 2012
Gene Model: July 27th, 2016
9 months agocdpk1 calcium dependent protein kinase1:
6.01
GRMZM2G115518
Anna Fiorillo et al. 2023. 14-3-3 Proteins and the Plasma Membrane H+-ATPase Are Involved in Maize (Zea mays) Magnetic Induction. Plants. 12:2887.     Reference: August 12th, 2023
Gene Product: December 3rd, 2013
Variation: November 16th, 2013
Gene Model: August 12th, 2013
9 months agobrl1 bri1-like receptor kinase1:
 
GRMZM2G092604
Anna Fiorillo et al. 2023. 14-3-3 Proteins and the Plasma Membrane H+-ATPase Are Involved in Maize (Zea mays) Magnetic Induction. Plants. 12:2887.   AT1G55610 (TAIR)
LOC_Os09g12240 (MSU/TIGR)
Reference: August 12th, 2023
Variation: July 17th, 2015
Gene Model: July 16th, 2015
9 months agosbp6 SBP-transcription factor 6:
5.00
GRMZM2G138421
Borba, AR et al. 2023. Compartmentation of photosynthesis gene expression in C4 maize depends on time of day. Plant Physiol. :doi: 10.1093/plphys/kiad447.     Reference: August 9th, 2023
Gene Product: July 5th, 2019
Variation: September 1st, 2003
Gene Model: June 14th, 2018
9 months agoarftf32 ARF-transcription factor 32:
 
   Mira, MM et al. 2020. Stem cell fate in hypoxic root apical meristems is influenced by phytoglobin expression. J Exp Bot. 71:1350-1362.     Reference: August 9th, 2023
Gene Product: January 29th, 2022
9 months agohsftf19 HSF-transcription factor 19:
 
   Borba, AR et al. 2023. Compartmentation of photosynthesis gene expression in C4 maize depends on time of day. Plant Physiol. :doi: 10.1093/plphys/kiad447.     Reference: August 9th, 2023
Gene Product: May 15th, 2020
9 months agomyb14 MYB-transcription factor 14:
 
   Borba, AR et al. 2023. Compartmentation of photosynthesis gene expression in C4 maize depends on time of day. Plant Physiol. :doi: 10.1093/plphys/kiad447.     Reference: August 9th, 2023
Gene Product: July 25th, 2017
9 months agonlp13 NLP-transcription factor 13:
 
   Borba, AR et al. 2023. Compartmentation of photosynthesis gene expression in C4 maize depends on time of day. Plant Physiol. :doi: 10.1093/plphys/kiad447.     Reference: August 9th, 2023
Gene Product: December 3rd, 2019
9 months agophp06005  :
10.03
GRMZM2G571844
Duan, HY et al. 2023. The genetic architecture of prolificacy in maize revealed by association mapping and bulk segregant analysis. Theor Appl Genet. 136:182.     Reference: August 9th, 2023
Variation: September 1st, 2003
Gene Model: September 2nd, 2018
9 months agodof2 DNA binding with one finger2:
2.07
   Borba, AR et al. 2023. Compartmentation of photosynthesis gene expression in C4 maize depends on time of day. Plant Physiol. :doi: 10.1093/plphys/kiad447.     Reference: August 9th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
9 months agoapx4 ascorbate peroxidase4:
 
GRMZM2G316256
Mira, MM et al. 2020. Stem cell fate in hypoxic root apical meristems is influenced by phytoglobin expression. J Exp Bot. 71:1350-1362.     Reference: August 9th, 2023
Gene Product: October 15th, 2020
Variation: June 5th, 2017
Gene Model: June 5th, 2017
9 months agocct41 CO CO-LIKE TIMING OF CAB1 protein domain41:
 
GRMZM2G179024
Borba, AR et al. 2023. Compartmentation of photosynthesis gene expression in C4 maize depends on time of day. Plant Physiol. :doi: 10.1093/plphys/kiad447.     Reference: August 9th, 2023
Gene Product: June 18th, 2018
Gene Model: December 22nd, 2017
9 months agoIDP3794  :
10.02
GRMZM2G093950
Duan, HY et al. 2023. The genetic architecture of prolificacy in maize revealed by association mapping and bulk segregant analysis. Theor Appl Genet. 136:182.     Reference: August 9th, 2023
Variation: March 31st, 2005
Gene Model: July 18th, 2021
9 months agosbp17 SBP-transcription factor 17:
1.11
GRMZM2G156756
Borba, AR et al. 2023. Compartmentation of photosynthesis gene expression in C4 maize depends on time of day. Plant Physiol. :doi: 10.1093/plphys/kiad447.     Reference: August 9th, 2023
Gene Product: July 5th, 2019
Gene Model: August 9th, 2021
9 months agoimpb1 importin beta1:
 
   Jin Lu et al. 2022. Identification of the Karyopherin Superfamily in Maize and Its Functional Cues in Plant Development Int J Mol Sci. 23:14103.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
9 months agoimpb3 mportin beta3:
 
   Jin Lu et al. 2022. Identification of the Karyopherin Superfamily in Maize and Its Functional Cues in Plant Development Int J Mol Sci. 23:14103.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
9 months agoimpb4 importin beta4:
 
   Jin Lu et al. 2022. Identification of the Karyopherin Superfamily in Maize and Its Functional Cues in Plant Development Int J Mol Sci. 23:14103.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
9 months agoimpb5 importin beta5:
 
   Jin Lu et al. 2022. Identification of the Karyopherin Superfamily in Maize and Its Functional Cues in Plant Development Int J Mol Sci. 23:14103.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
9 months agoimpb6 importin beta6:
 
   Jin Lu et al. 2022. Identification of the Karyopherin Superfamily in Maize and Its Functional Cues in Plant Development Int J Mol Sci. 23:14103.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
9 months agoimpb8 importin beta8:
 
   Jin Lu et al. 2022. Identification of the Karyopherin Superfamily in Maize and Its Functional Cues in Plant Development Int J Mol Sci. 23:14103.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
9 months agoimpb10 importin beta10:
 
   Jin Lu et al. 2022. Identification of the Karyopherin Superfamily in Maize and Its Functional Cues in Plant Development Int J Mol Sci. 23:14103.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
9 months agoimpb11 importin beta11:
 
   Jin Lu et al. 2022. Identification of the Karyopherin Superfamily in Maize and Its Functional Cues in Plant Development Int J Mol Sci. 23:14103.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
9 months agoimpb12 importin beta12:
 
   Jin Lu et al. 2022. Identification of the Karyopherin Superfamily in Maize and Its Functional Cues in Plant Development Int J Mol Sci. 23:14103.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
9 months agoimpb13 importin beta13:
 
   Jin Lu et al. 2022. Identification of the Karyopherin Superfamily in Maize and Its Functional Cues in Plant Development Int J Mol Sci. 23:14103.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
9 months agoimpb16 importin beta16:
 
   Jin Lu et al. 2022. Identification of the Karyopherin Superfamily in Maize and Its Functional Cues in Plant Development Int J Mol Sci. 23:14103.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
9 months agoimpb17 importin beta17:
 
   Jin Lu et al. 2022. Identification of the Karyopherin Superfamily in Maize and Its Functional Cues in Plant Development Int J Mol Sci. 23:14103.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
9 months agoimpb18 importin beta18:
 
   Sauer, M et al. 2023. Identification of the Teopod1, Teopod2, and Early Phase Change genes in maize G3. :doi: 10.1093/g3journal/jkad179.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
9 months agoimpb19 importin beta19:
 
   Sauer, M et al. 2023. Identification of the Teopod1, Teopod2, and Early Phase Change genes in maize G3. :doi: 10.1093/g3journal/jkad179.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
9 months agoimpb22 importin beta22:
 
   Sauer, M et al. 2023. Identification of the Teopod1, Teopod2, and Early Phase Change genes in maize G3. :doi: 10.1093/g3journal/jkad179.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
9 months agoimpb23 importin beta23:
 
   Sauer, M et al. 2023. Identification of the Teopod1, Teopod2, and Early Phase Change genes in maize G3. :doi: 10.1093/g3journal/jkad179.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
9 months agoimpb26 importin beta26:
 
   Jin Lu et al. 2022. Identification of the Karyopherin Superfamily in Maize and Its Functional Cues in Plant Development Int J Mol Sci. 23:14103.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
9 months agoimpb27 importin beta27:
 
   Jin Lu et al. 2022. Identification of the Karyopherin Superfamily in Maize and Its Functional Cues in Plant Development Int J Mol Sci. 23:14103.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
9 months agopza01619  :
10.04
GRMZM2G176998
Yu, T et al. 2023. Hub Gene Mining and Co-Expression Network Construction of Low-Temperature Response in Maize of Seedling by WGCNA Genes. 14:1598.     Reference: August 7th, 2023
Variation: September 25th, 2007
Gene Model: September 12th, 2021
9 months agoepc1 early phase change1:
8.03
   Sauer, M et al. 2023. Identification of the Teopod1, Teopod2, and Early Phase Change genes in maize G3. :doi: 10.1093/g3journal/jkad179.   At3g05040 (TAIR) Reference: August 7th, 2023
Gene Product: November 15th, 2022
Variation: September 24th, 2022
9 months agoimpb20 importin beta20:
1.08
GRMZM2G406043
Jin Lu et al. 2022. Identification of the Karyopherin Superfamily in Maize and Its Functional Cues in Plant Development Int J Mol Sci. 23:14103.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
Gene Model: April 18th, 2021
9 months agoirl1 isoflavone reductase-like1:
3.04
AC226235.2_FG001
Yu, T et al. 2023. Hub Gene Mining and Co-Expression Network Construction of Low-Temperature Response in Maize of Seedling by WGCNA Genes. 14:1598.     Reference: August 7th, 2023
Gene Product: September 1st, 2003
Variation: July 14th, 2008
Gene Model: March 3rd, 2015
9 months agoimpb24 importin beta24:
5.03
GRMZM5G854036
Sauer, M et al. 2023. Identification of the Teopod1, Teopod2, and Early Phase Change genes in maize G3. :doi: 10.1093/g3journal/jkad179.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
Gene Model: June 22nd, 2018
9 months agosbp21 SBP-transcription factor 21:
 
   Sauer, M et al. 2023. Identification of the Teopod1, Teopod2, and Early Phase Change genes in maize G3. :doi: 10.1093/g3journal/jkad179.   AT1G27370 (TAIR) Reference: August 7th, 2023
Gene Product: July 5th, 2019
9 months agoimpb25 importin beta25:
1.08
GRMZM2G010362
Sauer, M et al. 2023. Identification of the Teopod1, Teopod2, and Early Phase Change genes in maize G3. :doi: 10.1093/g3journal/jkad179.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
Gene Model: September 13th, 2017
9 months agoimpb7 importin beta7:
7.04
GRMZM5G887631
Jin Lu et al. 2022. Identification of the Karyopherin Superfamily in Maize and Its Functional Cues in Plant Development Int J Mol Sci. 23:14103.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
Gene Model: January 7th, 2022
9 months agowsd1 wax ester synthase/diacylglycerol acyltransferase1:
3.08
GRMZM2G077375
Castorina, G et al. 2023. Roles of the MYB94/FUSED LEAVES1 (ZmFDL1) and GLOSSY2 (ZmGL2) genes in cuticle biosynthesis and potential impacts on Fusarium verticillioides growth on maize silks Frontiers in Plant Science. 14:1228394.     Reference: August 7th, 2023
Gene Product: July 23rd, 2018
Variation: September 1st, 2003
Gene Model: January 3rd, 2022
9 months agogst8 glutathione transferase8:
 
GRMZM2G156877
Yu, T et al. 2023. Hub Gene Mining and Co-Expression Network Construction of Low-Temperature Response in Maize of Seedling by WGCNA Genes. 14:1598.     Reference: August 7th, 2023
Gene Product: September 1st, 2003
Gene Model: July 27th, 2016
9 months agogst25 glutathione transferase25:
9.08
GRMZM2G161905
Yu, T et al. 2023. Hub Gene Mining and Co-Expression Network Construction of Low-Temperature Response in Maize of Seedling by WGCNA Genes. 14:1598.     Reference: August 7th, 2023
Gene Product: September 1st, 2003
Gene Model: July 27th, 2016
9 months agoimpb2 importin beta2:
3.04
   Jin Lu et al. 2022. Identification of the Karyopherin Superfamily in Maize and Its Functional Cues in Plant Development Int J Mol Sci. 23:14103.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
9 months agocer1 eceriferum1:
 
GRMZM2G075255
Castorina, G et al. 2023. Roles of the MYB94/FUSED LEAVES1 (ZmFDL1) and GLOSSY2 (ZmGL2) genes in cuticle biosynthesis and potential impacts on Fusarium verticillioides growth on maize silks Frontiers in Plant Science. 14:1228394.     Reference: August 7th, 2023
Gene Product: February 13th, 2020
Variation: June 24th, 2021
Gene Model: February 13th, 2020
9 months agoimp5 importin5:
 
GRMZM2G169878
Jin Lu et al. 2022. Identification of the Karyopherin Superfamily in Maize and Its Functional Cues in Plant Development Int J Mol Sci. 23:14103.     Reference: August 7th, 2023
Gene Product: November 15th, 2022
Gene Model: December 16th, 2020
9 months agochn27 chitinase27:
 
GRMZM2G133781
Castorina, G et al. 2023. Roles of the MYB94/FUSED LEAVES1 (ZmFDL1) and GLOSSY2 (ZmGL2) genes in cuticle biosynthesis and potential impacts on Fusarium verticillioides growth on maize silks Frontiers in Plant Science. 14:1228394.     Reference: August 7th, 2023
Gene Product: May 31st, 2021
Gene Model: May 31st, 2021
9 months agoena2 efflux transporter of NA2:
 
GRMZM2G432480
Yu, T et al. 2023. Hub Gene Mining and Co-Expression Network Construction of Low-Temperature Response in Maize of Seedling by WGCNA Genes. 14:1598.     Reference: August 7th, 2023
Gene Product: January 18th, 2022
Gene Model: January 18th, 2022
9 months agojih2 jasmonoyl-l-isoleucine hydrolase2:
 
GRMZM5G833406
Yu, T et al. 2023. Hub Gene Mining and Co-Expression Network Construction of Low-Temperature Response in Maize of Seedling by WGCNA Genes. 14:1598.     Reference: August 7th, 2023
Gene Product: June 10th, 2022
Gene Model: June 10th, 2022
9 months agoIDP79  :
2.07
GRMZM2G080466
Yu, T et al. 2023. Hub Gene Mining and Co-Expression Network Construction of Low-Temperature Response in Maize of Seedling by WGCNA Genes. 14:1598.     Reference: August 7th, 2023
Variation: March 31st, 2005
Gene Model: February 20th, 2019
9 months agoplt21 phospholipid transfer protein21:
2.05
GRMZM2G099867
Yu, T et al. 2023. Hub Gene Mining and Co-Expression Network Construction of Low-Temperature Response in Maize of Seedling by WGCNA Genes. 14:1598.     Reference: August 7th, 2023
Gene Product: September 1st, 2003
Gene Model: March 17th, 2020
9 months agopcs1 pyrroline-5-carboxylate synthase1:
 
AC203754.4_FG008
Sakil Mahmud et al. 2023. Acetic acid positively modulates proline metabolism for mitigating PEG-mediated drought stress in Maize and Arabidopsis. Frontiers in Plant Science. 14:1167238.     Reference: August 5th, 2023
Gene Product: March 19th, 2015
Gene Model: March 2nd, 2021
9 months agoemb15 embryo specific15:
 
GRMZM2G165694
Li, QG et al. 2023. White and green striate leaves 1, predicted to encode a 16S rRNA processing protein, plays a critical role in the processing of chloroplast ribosomes in maize (Zea mays L.) Mol Breed. 43:65.     Reference: August 4th, 2023
Variation: August 4th, 2023
Gene Model: January 16th, 2021
9 months agodhs1 deoxyhypusine synthase1:
 
   Niknik Nurhayati et al. 2009. Evolution of pyrrolizidine alkaloids in Phalaenopsis orchids and other monocotyledons: identification of deoxyhypusine synthase, homospermidine synthase and related pseudogenes Phytochemistry. 70:508-16.     Reference: August 3rd, 2023
Gene Product: August 3rd, 2023
9 months agoacp1 acid phosphatase1:
9.03
AC211394.4_FG004
Wei Yang Zhang et al. 2014. Transcriptional analyses of natural leaf senescence in maize. PLoS One. 9:e115617.     Reference: August 3rd, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: July 27th, 2016
9 months agobf1 blue fluorescent1:
9.07 - 9.07
GRMZM2G051219
Wei Yang Zhang et al. 2014. Transcriptional analyses of natural leaf senescence in maize. PLoS One. 9:e115617.     Reference: August 3rd, 2023
Gene Product: October 23rd, 2013
Variation: October 22nd, 2013
Gene Model: October 21st, 2013
9 months agoumc1464  :
2.08
GRMZM2G365160
Wei Yang Zhang et al. 2014. Transcriptional analyses of natural leaf senescence in maize. PLoS One. 9:e115617.     Reference: August 3rd, 2023
Variation: September 1st, 2003
Gene Model: March 2nd, 2021
9 months agosee2a senescence enhanced2a:
 
GRMZM2G081626
Wei Yang Zhang et al. 2014. Transcriptional analyses of natural leaf senescence in maize. PLoS One. 9:e115617.     Reference: August 3rd, 2023
Variation: August 1st, 2011
Gene Model: November 20th, 2014
9 months agoAY110170  :
4.09
GRMZM2G155253
Wei Yang Zhang et al. 2014. Transcriptional analyses of natural leaf senescence in maize. PLoS One. 9:e115617.     Reference: August 3rd, 2023
Variation: July 29th, 2004
Gene Model: April 13th, 2018
9 months agoAY109934  :
3.08
GRMZM2G004183
Wei Yang Zhang et al. 2014. Transcriptional analyses of natural leaf senescence in maize. PLoS One. 9:e115617.     Reference: August 3rd, 2023
Variation: July 29th, 2004
Gene Model: March 20th, 2018
9 months agoans2 anthranilate synthase component II homolog2:
 
GRMZM2G171383
Wei Yang Zhang et al. 2014. Transcriptional analyses of natural leaf senescence in maize. PLoS One. 9:e115617.     Reference: August 3rd, 2023
Gene Product: June 15th, 2021
Variation: October 23rd, 2018
Gene Model: October 22nd, 2013
9 months agopld11 phospholipase D11:
 
GRMZM2G140811
Wei Yang Zhang et al. 2014. Transcriptional analyses of natural leaf senescence in maize. PLoS One. 9:e115617.     Reference: August 3rd, 2023
Gene Product: August 9th, 2016
Gene Model: August 9th, 2016
9 months agobrc1 brassinosteroid catabolism1:
 
GRMZM2G107322
Elizabeth A Dun et al. 2023. Strigolactones and shoot branching: what is the real hormone and how does it work? Plant Cell Physiol. :doi: 10.1093/pcp/pcad088.   AT2G26710 (TAIR)
LOC_Os02g11020 (MSU/TIGR)
Reference: August 3rd, 2023
Gene Product: July 6th, 2017
Gene Model: July 6th, 2017
9 months agohma5 heavy metal ATPase5:
 
GRMZM2G144083
Wei Yang Zhang et al. 2014. Transcriptional analyses of natural leaf senescence in maize. PLoS One. 9:e115617.     Reference: August 3rd, 2023
Gene Product: October 23rd, 2019
Gene Model: October 23rd, 2019
9 months agofbp2 fructose bisphosphatase2:
 
GRMZM2G306732
Wei Yang Zhang et al. 2014. Transcriptional analyses of natural leaf senescence in maize. PLoS One. 9:e115617.     Reference: August 3rd, 2023
Gene Product: June 9th, 2021
Gene Model: June 9th, 2021
9 months agomctp2 multiple C2 domain and transmembrane region protein2:
 
GRMZM2G123122
Wei Yang Zhang et al. 2014. Transcriptional analyses of natural leaf senescence in maize. PLoS One. 9:e115617.     Reference: August 3rd, 2023
Gene Product: August 3rd, 2022
Gene Model: August 3rd, 2022
9 months agoiaa19 Aux/IAA-transcription factor 19:
5.01
GRMZM2G152796
Wang, Yijun et al. 2010. Mol Biol Rep 37:3991-4001     Reference: August 2nd, 2023
Variation: September 25th, 2007
Gene Model: August 26th, 2021
9 months agoiaa11 Aux/IAA-transcription factor 11:
3.04
GRMZM2G167794
Wang, Yijun et al. 2010. Mol Biol Rep 37:3991-4001     Reference: August 2nd, 2023
Variation: September 1st, 2003
Gene Model: April 2nd, 2018
9 months agobk4 brittle stalk4:
7.03
   Neelakandan, AK et al. 2023. Characterization of integration sites and T-DNA structures in Agrobacterium-mediated transgenic events of maize inbred B104. G3. :doi: 10.1093/g3journal/jkad166.     Reference: July 31st, 2023
Gene Product: May 31st, 2021
Variation: September 7th, 2019
9 months agohct1 hydroxycinnamoyltransferase1:
 
GRMZM2G061806
Neelakandan, AK et al. 2023. Characterization of integration sites and T-DNA structures in Agrobacterium-mediated transgenic events of maize inbred B104. G3. :doi: 10.1093/g3journal/jkad166.     Reference: July 31st, 2023
Gene Product: November 7th, 2015
Gene Model: November 7th, 2015
9 months agohct2 hydroxycinnamoyltransferase2:
 
GRMZM2G114918
Neelakandan, AK et al. 2023. Characterization of integration sites and T-DNA structures in Agrobacterium-mediated transgenic events of maize inbred B104. G3. :doi: 10.1093/g3journal/jkad166.     Reference: July 31st, 2023
Gene Product: November 7th, 2015
Gene Model: November 7th, 2015
9 months agolht1 Lysine histidine transporter 1:
 
GRMZM2G127328
Neelakandan, AK et al. 2023. Characterization of integration sites and T-DNA structures in Agrobacterium-mediated transgenic events of maize inbred B104. G3. :doi: 10.1093/g3journal/jkad166.     Reference: July 31st, 2023
Gene Product: March 31st, 2021
Variation: February 11th, 2023
Gene Model: December 14th, 2019
9 months agoaaap40 amino acid/auxin permease40:
 
GRMZM2G127342
Neelakandan, AK et al. 2023. Characterization of integration sites and T-DNA structures in Agrobacterium-mediated transgenic events of maize inbred B104. G3. :doi: 10.1093/g3journal/jkad166.     Reference: July 31st, 2023
Gene Product: March 31st, 2021
Gene Model: March 31st, 2021
9 months agodcl105 dicer-like 105:
 
GRMZM2G301405
Berube, B et al. 2023. Teosinte Pollen Drive guides maize domestication and evolution by RNAi. bioRxiv preprint. :doi: 10.1101/2023.07.12.548689.   AT3G03300 (TAIR) Reference: July 28th, 2023
Gene Product: September 5th, 2006
Variation: July 28th, 2023
Gene Model: January 29th, 2015
9 months agocncr2 cinnamoyl CoA reductase2:
7.02
GRMZM2G131836
Wang, J et al. 2023. Transcriptome Analysis Revealed the Potential Molecular Mechanism of Anthocyanidins’ Improved Salt Tolerance in Maize Seedlings Plants. 12:2793.     Reference: July 27th, 2023
Gene Product: September 1st, 2003
Variation: October 11th, 2009
Gene Model: June 23rd, 2016
9 months agohmga102 high mobility group family A 102:
1.07
GRMZM2G106133
Wang, J et al. 2023. Transcriptome Analysis Revealed the Potential Molecular Mechanism of Anthocyanidins’ Improved Salt Tolerance in Maize Seedlings Plants. 12:2793.     Reference: July 27th, 2023
Gene Product: September 1st, 2003
Variation: December 9th, 2007
Gene Model: June 24th, 2014
9 months agocyp5 cytochrome P450 5:
 
GRMZM2G085812
Wang, J et al. 2023. Transcriptome Analysis Revealed the Potential Molecular Mechanism of Anthocyanidins’ Improved Salt Tolerance in Maize Seedlings Plants. 12:2793.     Reference: July 27th, 2023
Gene Product: June 20th, 2018
Gene Model: January 10th, 2019
9 months agoels5 early leaf senescence5:
 
   Gao, Y et al. 2023. Mapping the gene of a maize leaf senescence mutant and understanding the senescence pathways by expression analysis Plant Cell Rep. :doi: 10.1007/s00299-023-03051-4.     Reference: July 27th, 2023
Variation: November 22nd, 2019
9 months agomrpa19 multidrug resistance protein associated19:
 
   Craig L Cowling et al. 2023. Roles of auxin pathways in maize biology. J Exp Bot.     Reference: July 26th, 2023
Gene Product: July 11th, 2019
9 months agoppr206 pentatricopeptide repeat protein206:
 
   Shichao Sun et al. 2023. Unraveling prevalence and effects of deleterious mutations in maize elite lines across decades of modern breeding Mol Biol Evol. :doi: 10.1093/molbev/msad170.     Reference: July 26th, 2023
Gene Product: December 27th, 2016
9 months agoarftf33 ARF-transcription factor 33:
 
   Craig L Cowling et al. 2023. Roles of auxin pathways in maize biology. J Exp Bot.     Reference: July 26th, 2023
Gene Product: January 29th, 2022
9 months agoafb2 auxin signaling F-box2:
2.04
GRMZM5G848945
Craig L Cowling et al. 2023. Roles of auxin pathways in maize biology. J Exp Bot.     Reference: July 26th, 2023
Gene Product: April 27th, 2022
Gene Model: August 27th, 2021
9 months agotir2 transport inhibitor response2:
 
GRMZM2G155849
Craig L Cowling et al. 2023. Roles of auxin pathways in maize biology. J Exp Bot.     Reference: July 26th, 2023
Gene Product: April 27th, 2022
Gene Model: May 29th, 2019
9 months agoafb1 auxin signaling F-box1:
 
GRMZM2G137451
Craig L Cowling et al. 2023. Roles of auxin pathways in maize biology. J Exp Bot.     Reference: July 26th, 2023
Gene Product: April 27th, 2022
Gene Model: April 27th, 2022
9 months agodek66 defective kernel66:
 
   Wei, YM et al. 2023. Defective kernel 66 encodes a GTPase essential for kernel development in maize J Exp Bot. :doi: 10.1093/jxb/erad289.     Reference: July 25th, 2023
Variation: July 25th, 2023
9 months agofad2 fatty acid desaturase2:
 
GRMZM2G056252
Gao, L et al. 2023. Genetic and lipidomic analyses reveal the key role of lipid metabolism for cold tolerance in maize J Genet Genomics. :doi: 10.1016/j.jgg.2023.07.004.     Reference: July 24th, 2023
Gene Product: November 27th, 2020
Gene Model: January 6th, 2022
9 months agosacd2 stearoyl-acyl-carrier-protein desaturase2:
8.06
GRMZM2G180399
Gao, L et al. 2023. Genetic and lipidomic analyses reveal the key role of lipid metabolism for cold tolerance in maize J Genet Genomics. :doi: 10.1016/j.jgg.2023.07.004.     Reference: July 24th, 2023
Gene Product: October 10th, 2016
Variation: June 15th, 2016
Gene Model: June 15th, 2016
9 months agoIDP49  :
3.05
GRMZM2G136262
Gao, L et al. 2023. Genetic and lipidomic analyses reveal the key role of lipid metabolism for cold tolerance in maize J Genet Genomics. :doi: 10.1016/j.jgg.2023.07.004.     Reference: July 24th, 2023
Variation: March 31st, 2005
Gene Model: February 24th, 2019
9 months agoarr6 ARR-B-transcription factor 6:
 
   Dong, ZY et al. 2023. The Genetic Structures and Molecular Mechanisms Underlying Ear Traits in Maize (Zea mays L.) Cells. 12:1900.     Reference: July 21st, 2023
Gene Product: June 30th, 2017
9 months agofas1 fascicled ear1:
9.06 - 9.07
   Dong, ZY et al. 2023. The Genetic Structures and Molecular Mechanisms Underlying Ear Traits in Maize (Zea mays L.) Cells. 12:1900.     Reference: July 21st, 2023
Variation: February 13th, 2021
9 months agoslp1 saposin like protein1:
3.04
GRMZM5G877259
Han, ZP et al. 2023. Multi-Omics Revealed the Molecular Mechanism of Maize (Zea mays L.) Seed Germination Regulated by GA3 Agronomy. 13:1929.     Reference: July 21st, 2023
Gene Product: July 21st, 2023
Gene Model: March 28th, 2020
9 months agofea1 fasciated ear1:
 
   Dong, ZY et al. 2023. The Genetic Structures and Molecular Mechanisms Underlying Ear Traits in Maize (Zea mays L.) Cells. 12:1900.     Reference: July 21st, 2023
Variation: October 17th, 2010
9 months agotir1 transport inhibitor response1:
 
GRMZM2G135978
Dong, ZY et al. 2023. The Genetic Structures and Molecular Mechanisms Underlying Ear Traits in Maize (Zea mays L.) Cells. 12:1900.   LOC_Os05g05800 (MSU/TIGR)
Os05g0150500 (Gramene)
Reference: July 21st, 2023
Gene Product: April 27th, 2022
Gene Model: December 28th, 2018
9 months agozb9 zebra crossbands9:
 
GRMZM2G038598
Zhou, YS et al. 2023. A maize epimerase modulates cell wall synthesis and glycosylation during stomatal morphogenesis Nature communications. 14:4384.     Reference: July 21st, 2023
Gene Product: January 23rd, 2021
Variation: July 20th, 2023
Gene Model: January 23rd, 2021
9 months agoead1 ear apical degeneration1 :
 
GRMZM2G329229
Dong, ZY et al. 2023. The Genetic Structures and Molecular Mechanisms Underlying Ear Traits in Maize (Zea mays L.) Cells. 12:1900.     Reference: July 21st, 2023
Variation: March 16th, 2022
Gene Model: March 16th, 2022
9 months agobz2 bronze2:
1.08
   Nan Lu et al. 2023. An unconventional proanthocyanidin pathway in maize Nature communications. 14:4349.     Reference: July 20th, 2023
Gene Product: September 1st, 2003
Variation: March 31st, 2008
9 months agozim20 ZIM-transcription factor 20:
 
   Yuchao Hu et al. 2023. Identification, Characterization, and Expression Profiling of Maize GATA Gene Family in Response to Abiotic and Biotic Stresses Agronomy. 13:1921.     Reference: July 20th, 2023
Gene Product: February 24th, 2021
Variation: March 18th, 2021
9 months agozim47 ZIM-transcription factor 47:
 
   Yuchao Hu et al. 2023. Identification, Characterization, and Expression Profiling of Maize GATA Gene Family in Response to Abiotic and Biotic Stresses Agronomy. 13:1921.     Reference: July 20th, 2023
Gene Product: February 24th, 2021
9 months agoandr2 anthocyanidin reductase2:
 
GRMZM2G097841
Nan Lu et al. 2023. An unconventional proanthocyanidin pathway in maize Nature communications. 14:4349.   AT1G61720 (TAIR) Reference: July 20th, 2023
Gene Product: August 14th, 2022
Gene Model: August 13th, 2022
9 months agogata11 C2C2-GATA-transcription factor 11:
2.03
   Yuchao Hu et al. 2023. Identification, Characterization, and Expression Profiling of Maize GATA Gene Family in Response to Abiotic and Biotic Stresses Agronomy. 13:1921.     Reference: July 20th, 2023
Variation: September 25th, 2007
9 months agobzip91 bZIP-transcription factor 91:
2.08
GRMZM2G060109
Li, ZX; Tang, J; Srivastava, R; Bassham, DC; Howell, SH. 2020. Plant Cell. 0:doi: 10.1105/tpc.20.00260.     Reference: July 19th, 2023
Variation: September 25th, 2007
Gene Model: August 16th, 2021
9 months agohstf2 heat shock transcription factor2:
8.09
GRMZM2G118453
Yang, ZR et al. 2023. Genetic and Molecular Exploration of Maize Environmental Stress Resilience: Towards Sustainable Agriculture Molecular Plant. :doi: 10.1016/j.molp.2023.07.005.     Reference: July 19th, 2023
Gene Product: May 15th, 2020
Variation: December 23rd, 2012
Gene Model: July 28th, 2016
9 months agocipk24 calcineurin B-like-interacting protein kinase24:
6.03
GRMZM2G137569
Yang, ZR et al. 2023. Genetic and Molecular Exploration of Maize Environmental Stress Resilience: Towards Sustainable Agriculture Molecular Plant. :doi: 10.1016/j.molp.2023.07.005.     Reference: July 19th, 2023
Gene Product: August 25th, 2018
Gene Model: August 24th, 2018
9 months agosal1 supernumerary aleurone1:
9.03
   Li, ZX; Tang, J; Srivastava, R; Bassham, DC; Howell, SH. 2020. Plant Cell. 0:doi: 10.1105/tpc.20.00260.     Reference: July 19th, 2023
Variation: April 3rd, 2007
9 months agopmpm5 proteolipid membrane potential regulator5:
7.04 - 7.05
GRMZM2G477325
Yang, ZR et al. 2023. Genetic and Molecular Exploration of Maize Environmental Stress Resilience: Towards Sustainable Agriculture Molecular Plant. :doi: 10.1016/j.molp.2023.07.005.     Reference: July 19th, 2023
Variation: May 3rd, 2021
Gene Model: April 19th, 2013
9 months agocbl11 calcineurin B-like11:
 
GRMZM2G007555
Yang, ZR et al. 2023. Genetic and Molecular Exploration of Maize Environmental Stress Resilience: Towards Sustainable Agriculture Molecular Plant. :doi: 10.1016/j.molp.2023.07.005.     Reference: July 19th, 2023
Gene Product: October 19th, 2016
Gene Model: October 19th, 2016
9 months agonhx8 Na+/H+ antiporter 8:
 
GRMZM2G067747
Yang, ZR et al. 2023. Genetic and Molecular Exploration of Maize Environmental Stress Resilience: Towards Sustainable Agriculture Molecular Plant. :doi: 10.1016/j.molp.2023.07.005.   AT1G79610 (TAIR) Reference: July 19th, 2023
Gene Product: April 26th, 2021
Gene Model: August 25th, 2018
9 months agoosca1 hyperosmolality-gated calcium-permeable channels1:
 
GRMZM2G064189
Yang, ZR et al. 2023. Genetic and Molecular Exploration of Maize Environmental Stress Resilience: Towards Sustainable Agriculture Molecular Plant. :doi: 10.1016/j.molp.2023.07.005.     Reference: July 19th, 2023
Gene Product: January 6th, 2020
Gene Model: January 6th, 2020
9 months agogsk5 glycogen synthase kinase5:
 
GRMZM2G024151
Li, JF et al. 2023. Inhibition of the maize salt overly sensitive pathway by ZmSK3 and ZmSK4 Journal of Genetics and Genomics. :doi: 10.1016/j.jgg.2023.04.010.     Reference: July 19th, 2023
Gene Product: February 22nd, 2022
Gene Model: February 22nd, 2022
9 months agogsk10 glycogen synthase kinase10:
 
GRMZM2G075992
Li, JF et al. 2023. Inhibition of the maize salt overly sensitive pathway by ZmSK3 and ZmSK4 Journal of Genetics and Genomics. :doi: 10.1016/j.jgg.2023.04.010.     Reference: July 19th, 2023
Gene Product: February 22nd, 2022
Gene Model: February 22nd, 2022
9 months agogsk11 glycogen synthase kinase11:
5.00
GRMZM2G138676
Li, JF et al. 2023. Inhibition of the maize salt overly sensitive pathway by ZmSK3 and ZmSK4 Journal of Genetics and Genomics. :doi: 10.1016/j.jgg.2023.04.010.     Reference: July 19th, 2023
Gene Product: February 22nd, 2022
Gene Model: May 2nd, 2020
9 months agofad5 fatty acid desaturase5:
 
GRMZM2G097509
Baisakh, N et al. 2023. Comprehensive meta-analysis of QTL and gene expression studies identify candidate genes associated with Aspergillus flavus resistance in maize Frontiers in Plant Science. 14:1214907.     Reference: July 18th, 2023
Gene Product: September 1st, 2003
Gene Model: January 6th, 2022
9 months agoAQK70872  :
 
   Li, GL et al. 2023. Cloning and expression study of a high-affinity nitrate transporter gene from Zea mays L Plant Signaling and Behavior. 18:2163342.     Reference: July 17th, 2023
Gene Product: September 1st, 2003
9 months agozim13 ZIM-transcription factor 13:
 
   Xing, LJ et al. 2023. ZmmiR169q/ZmNF-YA8 is a module that homeostatically regulates primary root growth and salt tolerance in maize Frontiers in Plant Science. 14:1163228.     Reference: July 17th, 2023
Gene Product: February 24th, 2021
9 months agoaprt1 adenine phosphoribosyltransferase1:
2.04
GRMZM2G170101
Yasuhiro Tanaka et al. 2023. Structure-activity relationship of volatile compounds that induce defense-related genes in maize seedlings. Plant Signal Behav. :2234115.     Reference: July 17th, 2023
Gene Product: April 17th, 2008
Variation: September 8th, 2008
Gene Model: July 27th, 2016
9 months agofh1 frataxin1:
1.06
   Celeste Buchensky et al. 2017. Identification of two frataxin isoforms in Zea mays: Structural and functional studies. Biochimie. 140:34-47.     Reference: July 15th, 2023
Gene Product: July 15th, 2023
9 months agofh2 frataxin2:
3.06
   Celeste Buchensky et al. 2017. Identification of two frataxin isoforms in Zea mays: Structural and functional studies. Biochimie. 140:34-47.     Reference: July 15th, 2023
Gene Product: July 15th, 2023
9 months agoaldr9 aldose reductase9:
 
   Li, J et al. 2023. Exogenous Sorbitol Application Confers Drought Tolerance to Maize Seedlings through Up-Regulating Antioxidant System and Endogenous Sorbitol Biosynthesis. Plants. 12:2456.     Reference: July 14th, 2023
Gene Product: September 28th, 2020
9 months agodmas1 deoxymugineic acid synthase 1:
 
GRMZM2G060952
Li, J et al. 2023. Exogenous Sorbitol Application Confers Drought Tolerance to Maize Seedlings through Up-Regulating Antioxidant System and Endogenous Sorbitol Biosynthesis. Plants. 12:2456.     Reference: July 14th, 2023
Gene Product: April 27th, 2021
Gene Model: April 27th, 2021
9 months agocals3 callose synthase3:
 
GRMZM2G059212
Xue Zhang et al. 2023. Evaluation of Resistance Resources and Analysis of Resistance Mechanism of Maize to Stalk Rot Caused by Fusarium graminearum. Plant Dis. :doi: 10.1094/PDIS-04-23-0825-RE.     Reference: July 14th, 2023
Gene Product: July 5th, 2021
Gene Model: July 5th, 2021
9 months agoaldr3 aldose reductase3:
 
GRMZM2G169943
Li, J et al. 2023. Exogenous Sorbitol Application Confers Drought Tolerance to Maize Seedlings through Up-Regulating Antioxidant System and Endogenous Sorbitol Biosynthesis. Plants. 12:2456.     Reference: July 14th, 2023
Gene Product: September 28th, 2020
Gene Model: July 25th, 2021
9 months agodmas3 deoxymugineic acid synthase3:
 
GRMZM2G087507
Li, J et al. 2023. Exogenous Sorbitol Application Confers Drought Tolerance to Maize Seedlings through Up-Regulating Antioxidant System and Endogenous Sorbitol Biosynthesis. Plants. 12:2456.     Reference: July 14th, 2023
Gene Product: April 27th, 2021
Gene Model: July 26th, 2021
9 months agoaldr8 aldose reductase8:
10.05
AF466202.2_FG007
Li, J et al. 2023. Exogenous Sorbitol Application Confers Drought Tolerance to Maize Seedlings through Up-Regulating Antioxidant System and Endogenous Sorbitol Biosynthesis. Plants. 12:2456.     Reference: July 14th, 2023
Gene Product: September 28th, 2020
Gene Model: July 10th, 2022
9 months agoaldr7 aldose reductase7:
2.10
GRMZM2G016236
Li, J et al. 2023. Exogenous Sorbitol Application Confers Drought Tolerance to Maize Seedlings through Up-Regulating Antioxidant System and Endogenous Sorbitol Biosynthesis. Plants. 12:2456.     Reference: July 14th, 2023
Gene Product: September 28th, 2020
Gene Model: March 24th, 2020
9 months agoaldr1 aldose reductase1:
3.06
GRMZM2G479423
Li, J et al. 2023. Exogenous Sorbitol Application Confers Drought Tolerance to Maize Seedlings through Up-Regulating Antioxidant System and Endogenous Sorbitol Biosynthesis. Plants. 12:2456.     Reference: July 14th, 2023
Gene Product: September 28th, 2020
Gene Model: September 28th, 2020
10 months agoccamk1 calcium/calmodulin dependent protein kinase1:
 
GRMZM2G062772
Francisco Roberto Quiroz-Figueroa et al. 2023. Cell wall-related genes and lignin accumulation contribute to the root resistance in different maize (Zea mays L.) genotypes to Fusarium verticillioides (Sacc.) Nirenberg infection. Frontiers in Plant Science. 14:1195794.     Reference: July 13th, 2023
Gene Product: December 3rd, 2013
Variation: July 7th, 2017
Gene Model: April 23rd, 2013
10 months agotsa1 tryptophan synthase alpha subunit1:
 
GRMZM5G841619
Francisco Roberto Quiroz-Figueroa et al. 2023. Cell wall-related genes and lignin accumulation contribute to the root resistance in different maize (Zea mays L.) genotypes to Fusarium verticillioides (Sacc.) Nirenberg infection. Frontiers in Plant Science. 14:1195794.     Reference: July 13th, 2023
Gene Product: October 21st, 2011
Gene Model: October 14th, 2011
10 months agosnrkII8 SnRK2 serine threonine protein kinase8:
 
GRMZM2G138861
Francisco Roberto Quiroz-Figueroa et al. 2023. Cell wall-related genes and lignin accumulation contribute to the root resistance in different maize (Zea mays L.) genotypes to Fusarium verticillioides (Sacc.) Nirenberg infection. Frontiers in Plant Science. 14:1195794.     Reference: July 13th, 2023
Gene Product: April 14th, 2018
Variation: August 31st, 2018
Gene Model: February 11th, 2015
10 months agotrpp13 trehalose-6-phosphate phosphatase13:
 
GRMZM5G890599
Francisco Roberto Quiroz-Figueroa et al. 2023. Cell wall-related genes and lignin accumulation contribute to the root resistance in different maize (Zea mays L.) genotypes to Fusarium verticillioides (Sacc.) Nirenberg infection. Frontiers in Plant Science. 14:1195794.     Reference: July 13th, 2023
Gene Product: October 3rd, 2020
Gene Model: April 2nd, 2019
10 months agoacco7 1-aminocyclopropane-1-carboxylate oxidase7:
 
GRMZM2G089856
Francisco Roberto Quiroz-Figueroa et al. 2023. Cell wall-related genes and lignin accumulation contribute to the root resistance in different maize (Zea mays L.) genotypes to Fusarium verticillioides (Sacc.) Nirenberg infection. Frontiers in Plant Science. 14:1195794.     Reference: July 13th, 2023
Gene Product: May 16th, 2016
Gene Model: June 24th, 2021
10 months agopti2 pto-interacting2:
10.03
GRMZM2G061447
Francisco Roberto Quiroz-Figueroa et al. 2023. Cell wall-related genes and lignin accumulation contribute to the root resistance in different maize (Zea mays L.) genotypes to Fusarium verticillioides (Sacc.) Nirenberg infection. Frontiers in Plant Science. 14:1195794.     Reference: July 13th, 2023
Gene Product: May 13th, 2014
Gene Model: November 25th, 2019
10 months agoIDP3879  :
4.05
GRMZM2G064695
Francisco Roberto Quiroz-Figueroa et al. 2023. Cell wall-related genes and lignin accumulation contribute to the root resistance in different maize (Zea mays L.) genotypes to Fusarium verticillioides (Sacc.) Nirenberg infection. Frontiers in Plant Science. 14:1195794.     Reference: July 13th, 2023
Variation: March 31st, 2005
Gene Model: May 22nd, 2021
10 months agoftsh1 filamentation temperature-sensitive H 2A homolog1:
9.04
   Xuehang Xiong et al. 2023. Genetic dissection of maize (Zea mays L.) chlorophyll content using multi-locus genome-wide association studies. BMC Genomics. 24:384.     Reference: July 11th, 2023
Gene Product: September 10th, 2019
10 months agobnlg1136a  :
6.07
GRMZM5G847466
Zhang, YC et al. 2023. Comprehensive analysis of transcriptional data on seed germination of two maize inbred lines under low-temperature conditions. Plant Physiol Biochem. 201:107874.     Reference: July 11th, 2023
Variation: September 1st, 2003
Gene Model: August 30th, 2018
10 months agoim30p1 IM30 protein homolog1:
3.06
   Xuehang Xiong et al. 2023. Genetic dissection of maize (Zea mays L.) chlorophyll content using multi-locus genome-wide association studies. BMC Genomics. 24:384.     Reference: July 11th, 2023
Gene Product: September 1st, 2003
Variation: March 2nd, 2015
10 months agopyl8 pyrabactin resistance-like protein8:
8.04
GRMZM2G165567
Zhang, YC et al. 2023. Comprehensive analysis of transcriptional data on seed germination of two maize inbred lines under low-temperature conditions. Plant Physiol Biochem. 201:107874.     Reference: July 11th, 2023
Gene Product: January 31st, 2021
Gene Model: April 21st, 2018
10 months agosaur38 small auxin up RNA38:
4.05
GRMZM2G076345
Zhang, YC et al. 2023. Comprehensive analysis of transcriptional data on seed germination of two maize inbred lines under low-temperature conditions. Plant Physiol Biochem. 201:107874.     Reference: July 11th, 2023
Gene Product: November 26th, 2021
Gene Model: April 16th, 2020
10 months agorafs2 raffinose synthase2:
 
GRMZM2G050273
Yu, S et al. 2023. Identification and expression analysis of 21-nt and 24-nt phased small interfering RNAs in maize tissues Plant Growth Regulation. :doi: 10.1007/s10725-023-01040-x.     Reference: July 11th, 2023
Gene Product: October 25th, 2019
Gene Model: March 1st, 2018
10 months agopyl12 pyrabactin resistance-like protein12:
 
GRMZM2G405064
Zhang, YC et al. 2023. Comprehensive analysis of transcriptional data on seed germination of two maize inbred lines under low-temperature conditions. Plant Physiol Biochem. 201:107874.     Reference: July 11th, 2023
Gene Product: January 31st, 2021
Gene Model: April 21st, 2018
10 months agopyl1 pyrabactin resistance-like protein1:
 
AC194914.3_FG002
Zhang, YC et al. 2023. Comprehensive analysis of transcriptional data on seed germination of two maize inbred lines under low-temperature conditions. Plant Physiol Biochem. 201:107874.     Reference: July 11th, 2023
Gene Product: January 31st, 2021
Gene Model: January 31st, 2021
10 months agoIDP1458  :
10.02
GRMZM2G005848
Xuehang Xiong et al. 2023. Genetic dissection of maize (Zea mays L.) chlorophyll content using multi-locus genome-wide association studies. BMC Genomics. 24:384.     Reference: July 11th, 2023
Variation: March 31st, 2005
Gene Model: December 31st, 2017
10 months agodbf3 DRE-binding protein3:
2.07
   Zhang, YC et al. 2023. Comprehensive analysis of transcriptional data on seed germination of two maize inbred lines under low-temperature conditions. Plant Physiol Biochem. 201:107874.     Reference: July 11th, 2023
Gene Product: April 10th, 2013
Variation: October 23rd, 2019
10 months agoumc1951  :
3.06
GRMZM2G429982
Asmaa A Sharf-Eldin et al. 2023. Response of Maize Seedlings to Silicon Dioxide Nanoparticles (SiO2NPs) under Drought Stress Plants. 12:2592.     Reference: July 8th, 2023
Variation: September 1st, 2003
Gene Model: March 5th, 2021
10 months agowhp1 white pollen1:
2.08
   Liping Chen et al. 2023. ZmCOP1 Regulates Maize Mesocotyl Length and Plant Height through the Phytohormone Pathways Life. 13:1522.     Reference: July 7th, 2023
Gene Product: September 1st, 2003
Variation: August 24th, 2013
10 months agoflz14 FCS-like zinc finger14:
 
GRMZM2G099166
Yang, C et al. 2023. A Positive Feedback Regulation of SnRK1 Signaling by Autophagy in Plants. Molecular Plant. :doi: 10.1016/j.molp.2023.07.001.     Reference: July 6th, 2023
Gene Product: March 29th, 2021
Gene Model: February 21st, 2020
10 months agorhw1 regulator of husk leaf width1:
 
   Xia, AA et al. 2023. The RHW1-ZCN4 regulatory pathway confers natural variation of husk leaf width in maize. New Phytol. :doi: 10.1111/nph.19116.     Reference: July 5th, 2023
Variation: July 5th, 2023
10 months agoiqd13 IQ-domain 13:
4.04
GRMZM2G162020
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Gene Model: May 22nd, 2021
10 months agorpo1 RNA polymerase II homolog1:
1.08
GRMZM2G113928
Wang, D et al. 2010. Plant J 63:939-951     Reference: January 18th, 2023
Gene Product: July 5th, 2023
Variation: September 1st, 2003
Gene Model: August 18th, 2019
10 months agoumc2069  :
10.02
GRMZM5G803992
Chen, QQ et al. 2023. RNA polymerase common subunit ZmRPABC5b is transcriptionally activated by Opaque2 and essential for endosperm development in maize Nucl Acid Res. :doi: 10.1093/nar/gkad571.     Reference: July 5th, 2023
Gene Product: July 5th, 2023
Gene Model: January 18th, 2018
10 months agoiqd4 IQ-domain 4:
1.08
GRMZM2G038988
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Gene Model: February 14th, 2020
10 months agoiqd9 IQ-domain 9:
3.06
GRMZM2G155954
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Gene Model: April 5th, 2020
10 months agoaga2 alkaline galactosidase2:
 
GRMZM2G127147
Junhao Xu et al. 2023. Identification and Alternative Splicing Profile of the Raffinose synthase Gene in Grass Species Int J Mol Sci. 24:11120.     Reference: July 5th, 2023
Gene Product: March 1st, 2018
Gene Model: March 1st, 2018
10 months agoaga3 alkaline galactosidase3:
 
GRMZM2G037265
Junhao Xu et al. 2023. Identification and Alternative Splicing Profile of the Raffinose synthase Gene in Grass Species Int J Mol Sci. 24:11120.     Reference: July 5th, 2023
Gene Product: March 1st, 2018
Gene Model: March 1st, 2018
10 months agoaga4 alkaline galactosidase4:
 
GRMZM2G077181
Junhao Xu et al. 2023. Identification and Alternative Splicing Profile of the Raffinose synthase Gene in Grass Species Int J Mol Sci. 24:11120.     Reference: July 5th, 2023
Gene Product: March 1st, 2018
Gene Model: March 1st, 2018
10 months agoaga5 alkaline galactosidase5:
 
GRMZM2G047292
Junhao Xu et al. 2023. Identification and Alternative Splicing Profile of the Raffinose synthase Gene in Grass Species Int J Mol Sci. 24:11120.     Reference: July 5th, 2023
Gene Product: March 1st, 2018
Gene Model: March 1st, 2018
10 months agoiqd15 IQ-domain 15:
 
GRMZM5G826979
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: September 1st, 2003
Gene Model: December 17th, 2019
10 months agoiqd1 IQ-domain 1:
 
GRMZM2G102497
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Gene Model: May 23rd, 2021
10 months agoiqd2 IQ-domain 2:
 
GRMZM2G018030
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Gene Model: May 23rd, 2021
10 months agoiqd3 IQ-domain 3:
 
GRMZM2G070673
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Gene Model: May 23rd, 2021
10 months agoiqd5 IQ-domain 5:
 
GRMZM2G039187
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Gene Model: May 23rd, 2021
10 months agoiqd6 IQ-domain 6:
 
GRMZM2G433557
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Gene Model: May 23rd, 2021
10 months agoiqd7 IQ-domain 7:
 
GRMZM2G371176
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Gene Model: May 23rd, 2021
10 months agoiqd8 IQ-domain 8:
 
GRMZM2G342821
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Gene Model: May 23rd, 2021
10 months agoiqd10 IQ-domain 10:
 
GRMZM2G177929
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Gene Model: May 23rd, 2021
10 months agoiqd12 IQ-domain 12:
 
GRMZM2G008764
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Gene Model: May 23rd, 2021
10 months agoiqd14 IQ-domain 14:
 
GRMZM2G028813
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Gene Model: May 23rd, 2021
10 months agoiqd16 IQ-domain 16:
 
GRMZM2G406674
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: September 1st, 2003
Gene Model: May 23rd, 2021
10 months agoiqd17 IQ-domain 17:
 
GRMZM5G892879
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Gene Model: May 23rd, 2021
10 months agoiqd18 IQ-domain 18:
 
GRMZM2G147840
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Gene Model: May 23rd, 2021
10 months agoiqd20 IQ-domain 20:
 
GRMZM2G058690
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Gene Model: May 23rd, 2021
10 months agoiqd23 IQ-domain 23:
 
GRMZM2G100229
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Gene Model: May 23rd, 2021
10 months agoiqd22 IQ-domain 22:
 
GRMZM2G100229
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Gene Model: May 23rd, 2021
10 months agoiqd26 IQ-domain 26:
 
GRMZM2G095892
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Gene Model: May 23rd, 2021
10 months agoiqd28 IQ-domain 28:
8.06
GRMZM2G024799
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Variation: July 5th, 2023
Gene Model: September 3rd, 2019
10 months agodek701 defective kernel701:
8.06
GRMZM5G834335
Chen, QQ et al. 2023. RNA polymerase common subunit ZmRPABC5b is transcriptionally activated by Opaque2 and essential for endosperm development in maize Nucl Acid Res. :doi: 10.1093/nar/gkad571.     Reference: July 5th, 2023
Gene Product: July 5th, 2023
Variation: July 5th, 2023
Gene Model: September 3rd, 2019
10 months agoiqd25 IQ-domain 25:
10.04
GRMZM5G845601
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Variation: March 31st, 2005
Gene Model: January 18th, 2018
10 months agoiqd21 IQ-domain 21:
8.05
GRMZM2G012584
Li, H et al. 2023. IQ domain-containing protein ZmIQD27 modulates water transport in maize. Plant Physiol. :doi: 10.1093/plphys/kiad390.     Reference: July 5th, 2023
Gene Product: May 23rd, 2021
Gene Model: September 1st, 2019
10 months agovdac3 voltage-dependent anion channel protein3:
 
   Carolina Rodríguez-Saavedra et al. 2023. Identification and Characterization of VDAC Family in Maize Plants. 12:2542.     Reference: July 4th, 2023
Gene Product: July 4th, 2023
10 months agovdac4 voltage-dependent anion channel protein4:
 
   Carolina Rodríguez-Saavedra et al. 2023. Identification and Characterization of VDAC Family in Maize Plants. 12:2542.     Reference: July 4th, 2023
Gene Product: July 4th, 2023
10 months agovdac5 voltage-dependent anion channel protein5:
 
   Carolina Rodríguez-Saavedra et al. 2023. Identification and Characterization of VDAC Family in Maize Plants. 12:2542.     Reference: July 4th, 2023
Gene Product: July 4th, 2023
10 months agovdac6 voltage-dependent anion channel protein6:
 
   Carolina Rodríguez-Saavedra et al. 2023. Identification and Characterization of VDAC Family in Maize Plants. 12:2542.     Reference: July 4th, 2023
Gene Product: July 4th, 2023
10 months agovdac1a voltage-dependent anion channel protein1a:
2.06
GRMZM2G150616
Carolina Rodríguez-Saavedra et al. 2023. Identification and Characterization of VDAC Family in Maize Plants. 12:2542.     Reference: July 4th, 2023
Gene Product: January 24th, 2014
Variation: July 14th, 2009
Gene Model: July 29th, 2015
10 months agoommp1 outer mitochondrial membrane porin1:
1.01
GRMZM2G018417
Carolina Rodríguez-Saavedra et al. 2023. Identification and Characterization of VDAC Family in Maize Plants. 12:2542.     Reference: July 4th, 2023
Gene Product: July 4th, 2023
Variation: September 25th, 2007
Gene Model: April 26th, 2016
10 months agopor1 porin1:
8.06
GRMZM2G155021
Carolina Rodríguez-Saavedra et al. 2023. Identification and Characterization of VDAC Family in Maize Plants. 12:2542.     Reference: July 4th, 2023
Gene Product: September 1st, 2003
Variation: August 20th, 2015
Gene Model: February 5th, 2015
10 months agovdac1b voltage-dependent anion channel protein1b:
7.02
GRMZM2G146670
Carolina Rodríguez-Saavedra et al. 2023. Identification and Characterization of VDAC Family in Maize Plants. 12:2542.     Reference: July 4th, 2023
Gene Product: July 4th, 2023
Variation: January 13th, 2016
Gene Model: July 29th, 2015
10 months agovdac2 voltage-dependent anion channel protein2:
6.07
GRMZM2G115049
Carolina Rodríguez-Saavedra et al. 2023. Identification and Characterization of VDAC Family in Maize Plants. 12:2542.     Reference: July 4th, 2023
Gene Product: July 4th, 2023
Variation: January 7th, 2016
Gene Model: July 29th, 2015
10 months agomsl2 mechanosensitive channel of small conductance-like2:
2.02
   Olivia S Hazelwood et al. 2023. Characterization of mechanosensitive MSL gene family expression in Zea mays aerial and subterranean brace roots. MicroPubl Biol. 2023:doi: 10.17912/micropub.biology.000759.     Reference: July 3rd, 2023
Gene Product: October 8th, 2020
Variation: November 16th, 2017
10 months agosbp22 SBP-transcription factor 22:
 
   Li, ZW et al. 2023. Jasmonic acid-mediated stress responses share the molecular mechanism underlying male sterility induced by deficiency of ZmMs33 in maize The Crop Journal. :doi: 10.1016/j.cj.2023.06.002.     Reference: July 3rd, 2023
Gene Product: July 5th, 2019
10 months agomsl1 mechanosensitive channel of small conductance-like1:
 
GRMZM2G028914
Olivia S Hazelwood et al. 2023. Characterization of mechanosensitive MSL gene family expression in Zea mays aerial and subterranean brace roots. MicroPubl Biol. 2023:doi: 10.17912/micropub.biology.000759.     Reference: July 3rd, 2023
Gene Product: October 8th, 2020
Gene Model: October 8th, 2020
10 months agomsl4 mechanosensitive channel of small conductance-like4:
 
GRMZM2G303244
Olivia S Hazelwood et al. 2023. Characterization of mechanosensitive MSL gene family expression in Zea mays aerial and subterranean brace roots. MicroPubl Biol. 2023:doi: 10.17912/micropub.biology.000759.     Reference: July 3rd, 2023
Gene Product: October 8th, 2020
Gene Model: October 8th, 2020
10 months agomsl5 mechanosensitive channel of small conductance-like5:
 
GRMZM2G005996
Olivia S Hazelwood et al. 2023. Characterization of mechanosensitive MSL gene family expression in Zea mays aerial and subterranean brace roots. MicroPubl Biol. 2023:doi: 10.17912/micropub.biology.000759.     Reference: July 3rd, 2023
Gene Product: October 8th, 2020
Gene Model: October 8th, 2020
10 months agomsl6 mechanosensitive channel of small conductance-like6:
 
AY530952.1_FG001
Olivia S Hazelwood et al. 2023. Characterization of mechanosensitive MSL gene family expression in Zea mays aerial and subterranean brace roots. MicroPubl Biol. 2023:doi: 10.17912/micropub.biology.000759.     Reference: July 3rd, 2023
Gene Product: October 8th, 2020
Gene Model: October 8th, 2020
10 months agomsl7 mechanosensitive channel of small conductance-like7:
 
GRMZM2G005013
Olivia S Hazelwood et al. 2023. Characterization of mechanosensitive MSL gene family expression in Zea mays aerial and subterranean brace roots. MicroPubl Biol. 2023:doi: 10.17912/micropub.biology.000759.     Reference: July 3rd, 2023
Gene Product: October 8th, 2020
Gene Model: October 8th, 2020
10 months agomsl8 mechanosensitive channel of small conductance-like8:
 
GRMZM2G090627
Olivia S Hazelwood et al. 2023. Characterization of mechanosensitive MSL gene family expression in Zea mays aerial and subterranean brace roots. MicroPubl Biol. 2023:doi: 10.17912/micropub.biology.000759.     Reference: July 3rd, 2023
Gene Product: October 8th, 2020
Gene Model: October 8th, 2020
10 months agork1 reversed kernel1:
 
   Wang, Y et al. 2023. BSA-Seq and Transcriptomic Analysis Provide Candidate Genes Associated with Inflorescence Architecture and Kernel Orientation by Phytohormone Homeostasis in Maize Int J Mol Sci. 24:10728.     Reference: June 29th, 2023
Variation: June 29th, 2023
10 months agoppr100 pentatricopeptide repeat100:
 
GRMZM2G428579
Wang, Y et al. 2023. BSA-Seq and Transcriptomic Analysis Provide Candidate Genes Associated with Inflorescence Architecture and Kernel Orientation by Phytohormone Homeostasis in Maize Int J Mol Sci. 24:10728.   At2g01860 (TAIR)
LOC_Os02g02590 (MSU/TIGR)
Reference: June 29th, 2023
Gene Product: December 27th, 2016
Gene Model: May 20th, 2017
10 months agodhn13 dehydrin13:
1.09
GRMZM2G169372
Qin, L et al. 2023. Molecular and functional dissection of LIGULELESS1 (LG1) in plants. Frontiers in Plant Science. 14:1190004.     Reference: June 28th, 2023
Gene Product: August 5th, 2017
Variation: October 13th, 2016
Gene Model: October 14th, 2016
10 months agopza01360  :
3.09
   Chenchen Zhang et al. 2023. Identification and Functional Characterization of ZmSCYL2 Involved in Phytosterol Accumulation in Plants. Int J Mol Sci. 24:10411.     Reference: June 28th, 2023
Variation: November 7th, 2017
10 months agoumc1117  :
4.04
GRMZM2G050982
Anika Kovincic et al. 2023. Efficiency of Biological Typing Methods in Maize Hybrid Genetic Purity Estimation. Genes. 14:1195.     Reference: June 28th, 2023
Variation: September 1st, 2003
Gene Model: April 17th, 2018
10 months agoumc1133  :
6.01
GRMZM2G466498
Anika Kovincic et al. 2023. Efficiency of Biological Typing Methods in Maize Hybrid Genetic Purity Estimation. Genes. 14:1195.     Reference: June 28th, 2023
Variation: September 1st, 2003
Gene Model: February 20th, 2021
10 months agorcc1 regulator of chromosome condensation1:
3.06
GRMZM2G302245
Anika Kovincic et al. 2023. Efficiency of Biological Typing Methods in Maize Hybrid Genetic Purity Estimation. Genes. 14:1195.     Reference: June 28th, 2023
Gene Product: August 2nd, 2021
Variation: March 28th, 2018
Gene Model: March 28th, 2018
10 months agobzip121 bZIP-transcription factor 121:
2.04
GRMZM2G112483
Anika Kovincic et al. 2023. Efficiency of Biological Typing Methods in Maize Hybrid Genetic Purity Estimation. Genes. 14:1195.     Reference: June 28th, 2023
Variation: September 1st, 2003
Gene Model: February 21st, 2018
10 months agoumc1478  :
5.01
GRMZM2G007260
Anika Kovincic et al. 2023. Efficiency of Biological Typing Methods in Maize Hybrid Genetic Purity Estimation. Genes. 14:1195.     Reference: June 28th, 2023
Variation: September 1st, 2003
Gene Model: May 3rd, 2020
10 months agocbl9 calcineurin B-like9:
 
GRMZM2G015324
Jiawei Li et al. 2023. Research Progress on the Mechanism of Salt Tolerance in Maize: A Classic Field That Needs New Efforts. Plants. 12:2356.     Reference: June 28th, 2023
Gene Product: October 19th, 2016
Gene Model: October 19th, 2016
10 months agotrl1 tassels replace upper ears-like1:
 
GRMZM2G060723
Qin, L et al. 2023. Molecular and functional dissection of LIGULELESS1 (LG1) in plants. Frontiers in Plant Science. 14:1190004.   AT3G57130 (TAIR) Reference: June 28th, 2023
Gene Product: June 30th, 2021
Gene Model: December 25th, 2018
10 months agotraf7 TNF receptor-associated factor 7:
 
GRMZM2G022606
Qin, L et al. 2023. Molecular and functional dissection of LIGULELESS1 (LG1) in plants. Frontiers in Plant Science. 14:1190004.     Reference: June 28th, 2023
Gene Product: June 30th, 2021
Gene Model: May 20th, 2019
10 months agoalmt2 aluminum-activated malate transporter homolog2:
 
GRMZM5G858653
Jiawei Li et al. 2023. Research Progress on the Mechanism of Salt Tolerance in Maize: A Classic Field That Needs New Efforts. Plants. 12:2356.     Reference: June 28th, 2023
Gene Product: March 16th, 2022
Gene Model: April 28th, 2021
10 months agorpe1 Ribulose-phosphate 3-epimerase1:
1.02
   Ikkurti Gopinath et al. 2023. Meta-QTL analysis and identification of candidate genes governing popping quality attributes in maize S Afr J Bot. 159:461-471.     Reference: June 26th, 2023
Variation: August 4th, 2017
10 months agogras37 GRAS-transcription factor 37:
 
   McFarland, FL et al. 2023. A key to totipotency: Wuschel-like homeobox 2a unlocks embryogenic culture response in maize (Zea mays L.). Plant Biotechnol J. :doi: 10.1111/pbi.14098.     Reference: June 26th, 2023
Gene Product: June 24th, 2019
Variation: June 24th, 2019
10 months agozmm15 Zea mays MADS-box 15:
5.01
GRMZM2G553379
Li, CH, et al. 2022. Nature Plants. doi: 10.1038/s41477-022-01190-2     Reference: June 26th, 2023
Variation: June 15th, 2018
Gene Model: June 15th, 2018
10 months agoAY104289  :
6.07
GRMZM2G381709
Ikkurti Gopinath et al. 2023. Meta-QTL analysis and identification of candidate genes governing popping quality attributes in maize S Afr J Bot. 159:461-471.     Reference: June 26th, 2023
Variation: September 25th, 2007
Gene Model: August 29th, 2018
10 months agoremo3 remorin3:
 
GRMZM2G122937
Alpana Joshi et al. 2023. Integrated Molecular and Bioinformatics Approaches for Disease-Related Genes in Plants Plants. 12:2454.     Reference: June 26th, 2023
Gene Product: September 24th, 2018
Variation: April 16th, 2019
Gene Model: April 16th, 2019
10 months agopsk1 phytosulfokine peptide precursor1:
7.00
GRMZM2G044194
Cao, YY et al. 2023. Single-cell RNA sequencing profiles reveal cell type-specific transcriptional regulation networks conditioning fungal invasion in maize roots. Plant Biotechnol J.     Reference: June 23rd, 2023
Variation: May 9th, 2009
Gene Model: December 30th, 2015
10 months agopal10 phenylalanine ammonia lyase homolog10:
 
GRMZM2G326335
Cao, YY et al. 2023. Single-cell RNA sequencing profiles reveal cell type-specific transcriptional regulation networks conditioning fungal invasion in maize roots. Plant Biotechnol J.     Reference: June 23rd, 2023
Gene Product: August 13th, 2022
Gene Model: September 6th, 2019
10 months agogst55 glutathione S-transferase55:
 
   Sina Barghahn et al. 2023. Combination of transcriptomic, proteomic and degradomic profiling reveals common and distinct patterns of pathogen-induced cell death in maize. Plant J. :doi: 10.1111/tpj.16356.     Reference: June 21st, 2023
Gene Product: September 1st, 2003
10 months agorpnu1 regulator of pollen number1:
 
   Ting Guo et al. 2023. ZmRPN1 confers quantitative variation in pollen number and boosts hybrid seed production in maize. Plant Biotechnol J. :doi: 10.1111/pbi.14105.     Reference: June 21st, 2023
Variation: June 21st, 2023
10 months agolon1 LON peptidase1:
7.03
GRMZM2G109560
Sina Barghahn et al. 2023. Combination of transcriptomic, proteomic and degradomic profiling reveals common and distinct patterns of pathogen-induced cell death in maize. Plant J. :doi: 10.1111/tpj.16356.     Reference: June 21st, 2023
Gene Product: September 1st, 2003
Variation: January 8th, 2013
Gene Model: July 28th, 2016
10 months agogst35 glutathione transferase35:
9.08
GRMZM2G161891
Sina Barghahn et al. 2023. Combination of transcriptomic, proteomic and degradomic profiling reveals common and distinct patterns of pathogen-induced cell death in maize. Plant J. :doi: 10.1111/tpj.16356.     Reference: June 21st, 2023
Gene Product: September 1st, 2003
Gene Model: July 27th, 2016
10 months agoago18b argonaute18b:
1.08
GRMZM2G457370
Dai, ZK et al. 2023. ZmAGO18b negatively regulates maize resistance against southern leaf blight. Theor Appl Genet. 136:158.     Reference: June 21st, 2023
Gene Product: August 12th, 2016
Variation: August 17th, 2019
Gene Model: August 12th, 2016
10 months agoago1c argonaute1c:
 
GRMZM2G039455
Dai, ZK et al. 2023. ZmAGO18b negatively regulates maize resistance against southern leaf blight. Theor Appl Genet. 136:158.   AT1G48410 (TAIR) Reference: June 21st, 2023
Gene Product: August 12th, 2016
Gene Model: February 6th, 2016
10 months agoago2a argonaute2a:
 
GRMZM2G007791
Dai, ZK et al. 2023. ZmAGO18b negatively regulates maize resistance against southern leaf blight. Theor Appl Genet. 136:158.     Reference: June 21st, 2023
Gene Product: August 12th, 2016
Gene Model: August 13th, 2016
10 months agoago2b argonaute2b:
 
GRMZM2G354867
Dai, ZK et al. 2023. ZmAGO18b negatively regulates maize resistance against southern leaf blight. Theor Appl Genet. 136:158.     Reference: June 21st, 2023
Gene Product: August 12th, 2016
Gene Model: August 13th, 2016
10 months agoms28 male sterile28:
 
GRMZM2G123063
Dai, ZK et al. 2023. ZmAGO18b negatively regulates maize resistance against southern leaf blight. Theor Appl Genet. 136:158.     Reference: June 21st, 2023
Gene Product: August 12th, 2016
Variation: March 3rd, 2021
Gene Model: August 13th, 2016
10 months agoago10b argonaute10b:
 
GRMZM2G079080
Dai, ZK et al. 2023. ZmAGO18b negatively regulates maize resistance against southern leaf blight. Theor Appl Genet. 136:158.     Reference: June 21st, 2023
Gene Product: August 12th, 2016
Gene Model: August 13th, 2016
10 months agomca10 metacaspase10:
 
GRMZM2G066041
Sina Barghahn et al. 2023. Combination of transcriptomic, proteomic and degradomic profiling reveals common and distinct patterns of pathogen-induced cell death in maize. Plant J. :doi: 10.1111/tpj.16356.     Reference: June 21st, 2023
Gene Product: October 27th, 2020
Gene Model: October 27th, 2020
10 months agoccp31 cysteine protease31:
 
GRMZM2G010435
Sina Barghahn et al. 2023. Combination of transcriptomic, proteomic and degradomic profiling reveals common and distinct patterns of pathogen-induced cell death in maize. Plant J. :doi: 10.1111/tpj.16356.     Reference: June 21st, 2023
Gene Product: October 11th, 2021
Gene Model: October 11th, 2021
10 months agoago104 argonaute104:
6.07
GRMZM2G141818
Dai, ZK et al. 2023. ZmAGO18b negatively regulates maize resistance against southern leaf blight. Theor Appl Genet. 136:158.     Reference: June 21st, 2023
Gene Product: August 12th, 2016
Variation: September 4th, 2013
Gene Model: March 31st, 2011
10 months agozp1 zein alpha protein1:
4.04
   Jessica AS Barros et al. 2023. Autophagy during Maize Endosperm Development Dampens Oxidative Stress and Promotes Mitochondrial Clearance. Plant Physiol.     Reference: June 19th, 2023
Gene Product: September 1st, 2003
Variation: May 19th, 2015
10 months agocts1 citrate synthase1:
5.04
GRMZM2G063851
Jessica AS Barros et al. 2023. Autophagy during Maize Endosperm Development Dampens Oxidative Stress and Promotes Mitochondrial Clearance. Plant Physiol.     Reference: June 19th, 2023
Gene Product: July 5th, 2019
Variation: June 10th, 2014
Gene Model: June 10th, 2014
10 months agoapx11 ascorbate peroxidase11:
10.02
GRMZM2G014397
Jessica AS Barros et al. 2023. Autophagy during Maize Endosperm Development Dampens Oxidative Stress and Promotes Mitochondrial Clearance. Plant Physiol.     Reference: June 19th, 2023
Gene Product: October 15th, 2020
Gene Model: January 25th, 2018
10 months agoaco1 aconitase1:
4.04
GRMZM2G020801
Jessica AS Barros et al. 2023. Autophagy during Maize Endosperm Development Dampens Oxidative Stress and Promotes Mitochondrial Clearance. Plant Physiol.     Reference: June 19th, 2023
Gene Product: September 1st, 2003
Variation: March 28th, 2015
Gene Model: March 28th, 2015
10 months agofl1 floury endosperm1:
2.04
GRMZM2G094532
Jessica AS Barros et al. 2023. Autophagy during Maize Endosperm Development Dampens Oxidative Stress and Promotes Mitochondrial Clearance. Plant Physiol.     Reference: June 19th, 2023
Gene Product: July 8th, 2013
Variation: September 16th, 2010
Gene Model: July 8th, 2013
10 months agocsu849(atpb)  :
8.03
GRMZM2G021331
Jessica AS Barros et al. 2023. Autophagy during Maize Endosperm Development Dampens Oxidative Stress and Promotes Mitochondrial Clearance. Plant Physiol.     Reference: June 19th, 2023
Gene Product: September 1st, 2003
Gene Model: August 21st, 2014
10 months agommc0312a  :
3.04
GRMZM2G018951
Jessica AS Barros et al. 2023. Autophagy during Maize Endosperm Development Dampens Oxidative Stress and Promotes Mitochondrial Clearance. Plant Physiol.     Reference: June 19th, 2023
Variation: September 1st, 2003
Gene Model: March 23rd, 2018
10 months agopme1 pectin methylesterase1:
10.04
GRMZM2G125356
Xiaohong Yuan et al. 2023. The NAC transcription factor ZmNAC132 regulates leaf senescence and male fertility in maize. Plant Sci. doi: 10.1016/j.plantsci.2023.111774     Reference: June 19th, 2023
Gene Product: September 10th, 2018
Variation: October 8th, 2015
Gene Model: October 8th, 2015
10 months agolimtf14 LIM-transcription factor 14:
 
   Xiaohong Yuan et al. 2023. The NAC transcription factor ZmNAC132 regulates leaf senescence and male fertility in maize. Plant Sci. doi: 10.1016/j.plantsci.2023.111774     Reference: June 19th, 2023
Gene Product: December 16th, 2019
10 months agolimtf8 LIM-transcription factor 8:
 
   Xiaohong Yuan et al. 2023. The NAC transcription factor ZmNAC132 regulates leaf senescence and male fertility in maize. Plant Sci. doi: 10.1016/j.plantsci.2023.111774     Reference: June 19th, 2023
Gene Product: December 16th, 2019
10 months agolimtf9 LIM-transcription factor 9:
 
   Xiaohong Yuan et al. 2023. The NAC transcription factor ZmNAC132 regulates leaf senescence and male fertility in maize. Plant Sci. doi: 10.1016/j.plantsci.2023.111774     Reference: June 19th, 2023
Gene Product: December 16th, 2019
10 months agoaaap3 amino acid/auxin permease3:
1.05
GRMZM2G017170
Xiaohong Yuan et al. 2023. The NAC transcription factor ZmNAC132 regulates leaf senescence and male fertility in maize. Plant Sci. doi: 10.1016/j.plantsci.2023.111774     Reference: June 19th, 2023
Gene Product: March 31st, 2021
Variation: January 10th, 2017
Gene Model: June 15th, 2017
10 months agosam1 S-adenosylmethionine decarboxylase1:
10.04 - 10.05
GRMZM2G125635
Jessica AS Barros et al. 2023. Autophagy during Maize Endosperm Development Dampens Oxidative Stress and Promotes Mitochondrial Clearance. Plant Physiol.     Reference: June 19th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: January 24th, 2015
10 months agofl4 floury4:
 
GRMZM2G353272
Jessica AS Barros et al. 2023. Autophagy during Maize Endosperm Development Dampens Oxidative Stress and Promotes Mitochondrial Clearance. Plant Physiol.     Reference: June 19th, 2023
Gene Product: April 9th, 2014
Variation: April 8th, 2014
Gene Model: April 9th, 2014
10 months agosudh7 succinate dehydrogenase7:
 
GRMZM2G134134
Jessica AS Barros et al. 2023. Autophagy during Maize Endosperm Development Dampens Oxidative Stress and Promotes Mitochondrial Clearance. Plant Physiol.     Reference: June 19th, 2023
Gene Product: October 25th, 2016
Variation: October 25th, 2016
Gene Model: October 25th, 2016
10 months agoatg12 autophagy12:
 
GRMZM5G842517
Jessica AS Barros et al. 2023. Autophagy during Maize Endosperm Development Dampens Oxidative Stress and Promotes Mitochondrial Clearance. Plant Physiol.     Reference: June 19th, 2023
Variation: August 15th, 2017
Gene Model: August 15th, 2017
10 months agokgdh1 alpha-ketoglutarate dehydrogenase:
 
GRMZM2G079538
Jessica AS Barros et al. 2023. Autophagy during Maize Endosperm Development Dampens Oxidative Stress and Promotes Mitochondrial Clearance. Plant Physiol.     Reference: June 19th, 2023
Gene Product: March 25th, 2020
Gene Model: December 30th, 2019
10 months agornrl1 ribonucleotide reductase large subunit1:
 
GRMZM2G304362
Jessica AS Barros et al. 2023. Autophagy during Maize Endosperm Development Dampens Oxidative Stress and Promotes Mitochondrial Clearance. Plant Physiol.     Reference: June 19th, 2023
Gene Product: October 6th, 2020
Variation: April 27th, 2023
Gene Model: October 6th, 2020
10 months agoz1C1 alpha zein 19kDa C1:
 
GRMZM2G088273
Jessica AS Barros et al. 2023. Autophagy during Maize Endosperm Development Dampens Oxidative Stress and Promotes Mitochondrial Clearance. Plant Physiol.     Reference: June 19th, 2023
Gene Product: September 1st, 2003
Gene Model: September 20th, 2021
10 months agoebe2 embryo-sac basal-endosperm-layer embryo-surrounding-region2:
6.04
GRMZM2G167733
Jessica AS Barros et al. 2023. Autophagy during Maize Endosperm Development Dampens Oxidative Stress and Promotes Mitochondrial Clearance. Plant Physiol.     Reference: June 19th, 2023
Variation: May 6th, 2004
Gene Model: August 20th, 2015
10 months agosudh15 succinate dehydrogenase15:
 
   Eprintsev, AT et al. 2023. Light-Dependent Expression and Promoter Methylation of the Genes Encoding Succinate Dehydrogenase, Fumarase, and NAD-Malate Dehydrogenase in Maize (Zea mays L.) Leaves Int J Mol Sci. 24:10211.     Reference: June 16th, 2023
Gene Product: October 25th, 2016
10 months agoAY110141  :
9.06
GRMZM2G119627
Zhu, JT et al. 2023. ZmEREB57 regulates OPDA synthesis and enhances salt stress tolerance through two distinct signalling pathways in Zea mays. Plant Cell Environ. :doi: 10.1111/pce.14644.     Reference: June 16th, 2023
Variation: September 25th, 2007
Gene Model: September 9th, 2021
10 months agosudh3 succinate dehydrogenase3:
 
GRMZM2G056912
Eprintsev, AT et al. 2023. Light-Dependent Expression and Promoter Methylation of the Genes Encoding Succinate Dehydrogenase, Fumarase, and NAD-Malate Dehydrogenase in Maize (Zea mays L.) Leaves Int J Mol Sci. 24:10211.     Reference: June 16th, 2023
Gene Product: October 25th, 2016
Gene Model: October 25th, 2016
10 months agoereb214 AP2-EREBP-transcription factor 214:
 
   Huanhuan Qi et al. 2023. Advances of Apetala2/Ethylene Response Factors in Regulating Development and Stress Response in Maize Int J Mol Sci. 24:5416.     Reference: June 15th, 2023
Gene Product: July 5th, 2019
10 months agoereb215 AP2-EREBP-transcription factor 215:
 
   Huanhuan Qi et al. 2023. Advances of Apetala2/Ethylene Response Factors in Regulating Development and Stress Response in Maize Int J Mol Sci. 24:5416.     Reference: June 15th, 2023
Gene Product: July 5th, 2019
10 months agoereb217 AP2-EREBP-transcription factor 217:
 
   Huanhuan Qi et al. 2023. Advances of Apetala2/Ethylene Response Factors in Regulating Development and Stress Response in Maize Int J Mol Sci. 24:5416.     Reference: June 15th, 2023
Gene Product: July 5th, 2019
10 months agoereb222 AP2-EREBP-transcription factor 222:
 
   Huanhuan Qi et al. 2023. Advances of Apetala2/Ethylene Response Factors in Regulating Development and Stress Response in Maize Int J Mol Sci. 24:5416.     Reference: June 15th, 2023
Gene Product: July 5th, 2019
10 months agoereb223 AP2-EREBP-transcription factor 223:
 
   Huanhuan Qi et al. 2023. Advances of Apetala2/Ethylene Response Factors in Regulating Development and Stress Response in Maize Int J Mol Sci. 24:5416.     Reference: June 15th, 2023
Gene Product: July 5th, 2019
10 months agoereb224 AP2-EREBP-transcription factor 224:
 
   Huanhuan Qi et al. 2023. Advances of Apetala2/Ethylene Response Factors in Regulating Development and Stress Response in Maize Int J Mol Sci. 24:5416.     Reference: June 15th, 2023
Gene Product: July 5th, 2019
10 months agoereb225 AP2-EREBP-transcription factor 225:
 
   Huanhuan Qi et al. 2023. Advances of Apetala2/Ethylene Response Factors in Regulating Development and Stress Response in Maize Int J Mol Sci. 24:5416.     Reference: June 15th, 2023
Gene Product: July 5th, 2019
10 months agoereb228 AP2-EREBP-transcription factor 228:
 
   Huanhuan Qi et al. 2023. Advances of Apetala2/Ethylene Response Factors in Regulating Development and Stress Response in Maize Int J Mol Sci. 24:5416.     Reference: June 15th, 2023
Gene Product: July 5th, 2019
10 months agoereb230 AP2-EREBP-transcription factor 230:
 
   Huanhuan Qi et al. 2023. Advances of Apetala2/Ethylene Response Factors in Regulating Development and Stress Response in Maize Int J Mol Sci. 24:5416.     Reference: June 15th, 2023
Gene Product: July 5th, 2019
10 months agoereb231 AP2-EREBP-transcription factor 231:
 
   Huanhuan Qi et al. 2023. Advances of Apetala2/Ethylene Response Factors in Regulating Development and Stress Response in Maize Int J Mol Sci. 24:5416.     Reference: June 15th, 2023
Gene Product: July 5th, 2019
10 months agoereb233 AP2-EREBP-transcription factor 233:
 
   Huanhuan Qi et al. 2023. Advances of Apetala2/Ethylene Response Factors in Regulating Development and Stress Response in Maize Int J Mol Sci. 24:5416.     Reference: June 15th, 2023
Gene Product: July 5th, 2019
10 months agoereb236 AP2-EREBP-transcription factor 236:
 
   Huanhuan Qi et al. 2023. Advances of Apetala2/Ethylene Response Factors in Regulating Development and Stress Response in Maize Int J Mol Sci. 24:5416.     Reference: June 15th, 2023
Gene Product: July 5th, 2019
10 months agoereb239 AP2-EREBP-transcription factor 239:
 
   Huanhuan Qi et al. 2023. Advances of Apetala2/Ethylene Response Factors in Regulating Development and Stress Response in Maize Int J Mol Sci. 24:5416.     Reference: June 15th, 2023
Gene Product: July 5th, 2019
10 months agoaox4 alternative oxidase:
 
   Shaoqing Wang et al. 2023. Identification of miRNAs Involved in Maize-Induced Systemic Resistance Primed by Trichoderma harzianum T28 against Cochliobolus heterostrophus Journal of Fungi. 9:278.     Reference: February 22nd, 2023
Gene Product: June 15th, 2023
10 months agoZm00001d005203  :
 
   Huanhuan Qi et al. 2023. Advances of Apetala2/Ethylene Response Factors in Regulating Development and Stress Response in Maize Int J Mol Sci. 24:5416.     Reference: June 15th, 2023
Gene Product: July 5th, 2019
10 months agogpdh4 glucose-6-phosphate dehydrogenase4:
 
   Mamani-Huarcaya, BM et al. 2023. Leaf Proteomic Analysis in Seedlings of Two Maize Landraces with Different Tolerance to Boron Toxicity Plants. 12:2322.     Reference: June 15th, 2023
Gene Product: September 1st, 2003
10 months agomcca1 3-methylcrotonoyl-CoA carboxylase-α-subunit1:
 
   Mamani-Huarcaya, BM et al. 2023. Leaf Proteomic Analysis in Seedlings of Two Maize Landraces with Different Tolerance to Boron Toxicity Plants. 12:2322.     Reference: June 15th, 2023
Variation: April 1st, 2023
10 months agochlh1 Mg chelatase subunit H 1:
 
GRMZM2G323024
Mamani-Huarcaya, BM et al. 2023. Leaf Proteomic Analysis in Seedlings of Two Maize Landraces with Different Tolerance to Boron Toxicity Plants. 12:2322.   AT5G13630 (TAIR)
LOC_Os03g20700 (MSU/TIGR)
Reference: June 15th, 2023
Gene Product: June 11th, 2007
Gene Model: May 15th, 2017
10 months agolhcb3 light harvesting chlorophyll a/b binding protein3:
8.03
   Jingxia Zhang et al. 2023. Multiomics reveals Claroideoglomus etunicatum regulates plant hormone signal transduction, photosynthesis and La compartmentalization in maize to promote growth under La stress. Ecotoxicol Environ Safety. 262:115128.     Reference: June 15th, 2023
Gene Product: January 8th, 2005
Variation: August 20th, 2014
10 months agogl6 glossy6:
3.05 - 3.05
GRMZM2G139786
Mamani-Huarcaya, BM et al. 2023. Leaf Proteomic Analysis in Seedlings of Two Maize Landraces with Different Tolerance to Boron Toxicity Plants. 12:2322.     Reference: June 15th, 2023
Gene Product: March 28th, 2019
Variation: July 28th, 2018
Gene Model: July 28th, 2018
10 months agossu3 small subunit Rubisco3:
 
   Mamani-Huarcaya, BM et al. 2023. Leaf Proteomic Analysis in Seedlings of Two Maize Landraces with Different Tolerance to Boron Toxicity Plants. 12:2322.     Reference: June 15th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
10 months agoereb117 AP2-EREBP-transcription factor 117:
8.05
GRMZM2G113078
Huanhuan Qi et al. 2023. Advances of Apetala2/Ethylene Response Factors in Regulating Development and Stress Response in Maize Int J Mol Sci. 24:5416.     Reference: June 15th, 2023
Variation: September 1st, 2003
Gene Model: September 20th, 2018
10 months agoabi13 ABI3-VP1-transcription factor 33:
 
GRMZM2G065538
Cheng, C et al. 2023. Wide-Range Portrayal of AP2/ERF Transcription Factor Family in Maize (Zea mays L.) Development and Stress Responses. Genes. 14     Reference: June 15th, 2023
Gene Product: January 29th, 2022
Gene Model: March 23rd, 2019
10 months agoereb202 AP2-EREBP-transcription factor 202:
 
   Huanhuan Qi et al. 2023. Advances of Apetala2/Ethylene Response Factors in Regulating Development and Stress Response in Maize Int J Mol Sci. 24:5416.     Reference: June 15th, 2023
Variation: January 22nd, 2021
10 months agoereb94 AP2-EREBP-transcription factor 94:
 
   Huanhuan Qi et al. 2023. Advances of Apetala2/Ethylene Response Factors in Regulating Development and Stress Response in Maize Int J Mol Sci. 24:5416.     Reference: June 15th, 2023
Variation: May 9th, 2017
10 months agoaox1 alternative oxidase1 :
2.02
AC233960.1_FG002
Dai, DW et al. 2020. J Exp Bot pp.doi: 10.1093/jxb/eraa348     Reference: July 27th, 2020
Gene Product: June 15th, 2023
Variation: February 22nd, 2012
Gene Model: February 17th, 2012
10 months agocol12 2C2-CO-like-transcription factor 12:
5.07
GRMZM2G041991
Wang, YF et al. 2023. Integrative transcriptome and metabolome analysis reveals the mechanism of exogenous melatonin alleviating drought stress in maize roots Plant Physiol Biochem. :doi: 10.1016/j.plaphy.2023.107723.     Reference: June 15th, 2023
Gene Product: September 1st, 2003
Variation: March 31st, 2017
Gene Model: March 31st, 2017
10 months agohis1a histone1a:
7.01
GRMZM2G401308
Mamani-Huarcaya, BM et al. 2023. Leaf Proteomic Analysis in Seedlings of Two Maize Landraces with Different Tolerance to Boron Toxicity Plants. 12:2322.     Reference: June 15th, 2023
Gene Product: October 24th, 2017
Variation: October 31st, 2017
Gene Model: July 24th, 2015
10 months agoeif3 eukaryotic initiation factor3:
3.02
GRMZM2G093050
Mamani-Huarcaya, BM et al. 2023. Leaf Proteomic Analysis in Seedlings of Two Maize Landraces with Different Tolerance to Boron Toxicity Plants. 12:2322.     Reference: June 15th, 2023
Gene Product: September 1st, 2003
Variation: February 24th, 2014
Gene Model: January 15th, 2015
10 months agoAY109870  :
3.04
GRMZM2G111014
Mamani-Huarcaya, BM et al. 2023. Leaf Proteomic Analysis in Seedlings of Two Maize Landraces with Different Tolerance to Boron Toxicity Plants. 12:2322.     Reference: June 15th, 2023
Variation: July 29th, 2004
Gene Model: March 20th, 2018
10 months agohon110 histone one (H1):
1.11
GRMZM2G164020
Mamani-Huarcaya, BM et al. 2023. Leaf Proteomic Analysis in Seedlings of Two Maize Landraces with Different Tolerance to Boron Toxicity Plants. 12:2322.     Reference: June 15th, 2023
Variation: June 25th, 2014
Gene Model: October 25th, 2013
10 months agonfc103a nucleosome/chromatin assembly factor C:
1.08
GRMZM2G090217
Mamani-Huarcaya, BM et al. 2023. Leaf Proteomic Analysis in Seedlings of Two Maize Landraces with Different Tolerance to Boron Toxicity Plants. 12:2322.     Reference: June 15th, 2023
Variation: September 1st, 2003
Gene Model: December 11th, 2012
10 months agoabcf1 ABC family1:
2.09
GRMZM2G105570
Mamani-Huarcaya, BM et al. 2023. Leaf Proteomic Analysis in Seedlings of Two Maize Landraces with Different Tolerance to Boron Toxicity Plants. 12:2322.     Reference: June 15th, 2023
Gene Product: December 28th, 2015
Variation: December 24th, 2015
Gene Model: December 24th, 2015
10 months agosun2 SUN domain protein2:
 
GRMZM2G440614
Mamani-Huarcaya, BM et al. 2023. Leaf Proteomic Analysis in Seedlings of Two Maize Landraces with Different Tolerance to Boron Toxicity Plants. 12:2322.     Reference: June 15th, 2023
Variation: April 20th, 2011
Gene Model: April 20th, 2011
10 months agoaox3 alternative oxidase3:
 
GRMZM2G074743
Shaoqing Wang et al. 2023. Identification of miRNAs Involved in Maize-Induced Systemic Resistance Primed by Trichoderma harzianum T28 against Cochliobolus heterostrophus Journal of Fungi. 9:278.     Reference: February 22nd, 2023
Gene Product: June 15th, 2023
Gene Model: February 17th, 2012
10 months agokea4 K+ efflux antiporter 4:
 
GRMZM2G058948
Mamani-Huarcaya, BM et al. 2023. Leaf Proteomic Analysis in Seedlings of Two Maize Landraces with Different Tolerance to Boron Toxicity Plants. 12:2322.     Reference: June 15th, 2023
Gene Product: April 26th, 2021
Gene Model: April 26th, 2021
10 months agoptac16 plastid transcriptionally active16:
 
GRMZM2G449496
Mamani-Huarcaya, BM et al. 2023. Leaf Proteomic Analysis in Seedlings of Two Maize Landraces with Different Tolerance to Boron Toxicity Plants. 12:2322.     Reference: June 15th, 2023
Gene Product: December 21st, 2022
Gene Model: November 16th, 2021
10 months agoereb218 AP2-EREBP-transcription factor 218:
 
GRMZM2G099326
Huanhuan Qi et al. 2023. Advances of Apetala2/Ethylene Response Factors in Regulating Development and Stress Response in Maize Int J Mol Sci. 24:5416.     Reference: June 15th, 2023
Gene Product: July 5th, 2019
Gene Model: August 13th, 2022
10 months agoereb235 AP2-EREBP-transcription factor 235:
6.05
GRMZM2G067036
Huanhuan Qi et al. 2023. Advances of Apetala2/Ethylene Response Factors in Regulating Development and Stress Response in Maize Int J Mol Sci. 24:5416.     Reference: June 15th, 2023
Gene Product: July 5th, 2019
Variation: March 31st, 2005
Gene Model: July 2nd, 2021
10 months agocbs1 cystathionine beta synthase domain protein1:
1.10
GRMZM2G416388
Wenting Wan et al. 2023. Genome-wide association analysis of kernel nutritional quality in two natural maize populations. Mol Breed. 43:18.     Reference: June 14th, 2023
Gene Product: February 15th, 2015
Variation: February 14th, 2015
Gene Model: February 14th, 2015
10 months agosqs1 squalene synthase1:
1.11
GRMZM2G108225
Wenting Wan et al. 2023. Genome-wide association analysis of kernel nutritional quality in two natural maize populations. Mol Breed. 43:18.     Reference: June 14th, 2023
Gene Product: September 1st, 2003
Variation: January 27th, 2011
Gene Model: December 19th, 2014
10 months agofdad1 false DAD1:
9.03
GRMZM5G847530
Wenting Wan et al. 2023. Genome-wide association analysis of kernel nutritional quality in two natural maize populations. Mol Breed. 43:18.     Reference: June 14th, 2023
Variation: September 1st, 2015
Gene Model: September 1st, 2015
10 months agosqsh1 squalene synthase homolog1:
 
GRMZM2G029396
Wenting Wan et al. 2023. Genome-wide association analysis of kernel nutritional quality in two natural maize populations. Mol Breed. 43:18.     Reference: June 14th, 2023
Variation: January 27th, 2011
Gene Model: June 1st, 2017
10 months agobbx7 b-box7:
 
GRMZM5G813532
Dong, Y et al. 2023. Genome-wide association analysis for grain moisture content and dehydration rate on maize hybrids. Mol Breed. 43:5.     Reference: June 14th, 2023
Gene Product: January 11th, 2019
Gene Model: January 10th, 2019
10 months agoinvinh1 invertase inhibitor1:
 
GRMZM2G162447
Dong, Y et al. 2023. Genome-wide association analysis for grain moisture content and dehydration rate on maize hybrids. Mol Breed. 43:5.     Reference: June 14th, 2023
Gene Product: August 7th, 2019
Gene Model: August 7th, 2019
10 months agocct54 CO CO-LIKE TIMING OF CAB1 protein domain54:
 
GRMZM2G057529
Dong, Y et al. 2023. Genome-wide association analysis for grain moisture content and dehydration rate on maize hybrids. Mol Breed. 43:5.     Reference: June 14th, 2023
Gene Product: June 18th, 2018
Gene Model: August 17th, 2021
10 months agoatg8b autophagy8b:
10.06
GRMZM2G419694
Wenting Wan et al. 2023. Genome-wide association analysis of kernel nutritional quality in two natural maize populations. Mol Breed. 43:18.     Reference: June 14th, 2023
Variation: March 31st, 2005
Gene Model: August 15th, 2017
11 months agoZm00001d010801  :
 
   Mira, MM et al. 2023. Plant stem cells under low oxygen: metabolic rewiring by phytoglobin underlies stem cell functionality. Plant Physiol. :doi: 10.1093/plphys/kiad344.     Reference: June 13th, 2023
Gene Product: October 25th, 2006
11 months agotpi2 triose phosphate isomerase2:
2.07 - 2.07
GRMZM2G002807
Mira, MM et al. 2023. Plant stem cells under low oxygen: metabolic rewiring by phytoglobin underlies stem cell functionality. Plant Physiol. :doi: 10.1093/plphys/kiad344.     Reference: June 13th, 2023
Gene Product: March 6th, 2023
Gene Model: January 15th, 2015
11 months agosudh2 succinate dehydrogenase2:
4.05
GRMZM2G302259
Mira, MM et al. 2023. Plant stem cells under low oxygen: metabolic rewiring by phytoglobin underlies stem cell functionality. Plant Physiol. :doi: 10.1093/plphys/kiad344.     Reference: June 13th, 2023
Gene Product: October 25th, 2016
Variation: October 25th, 2016
Gene Model: July 28th, 2016
11 months agosbp2 SBP-domain protein2:
4.09
GRMZM2G168229
Dongdong Dang et al. 2023. Genome-Wide Association Study and Genomic Prediction on Plant Architecture Traits in Sweet Corn and Waxy Corn. 12:303.     Reference: June 13th, 2023
Gene Product: July 5th, 2019
Variation: October 8th, 2011
Gene Model: December 18th, 2014
11 months agoabi32 ABI3-VP1-transcription factor 32:
 
   Dongdong Dang et al. 2023. Genome-Wide Association Study and Genomic Prediction on Plant Architecture Traits in Sweet Corn and Waxy Corn. 12:303.     Reference: June 13th, 2023
Gene Product: January 29th, 2022
11 months agorca4 RUBISCO activase4:
2.02 - 2.02
GRMZM2G039345
Dongdong Dang et al. 2023. Genome-Wide Association Study and Genomic Prediction on Plant Architecture Traits in Sweet Corn and Waxy Corn. 12:303.     Reference: June 13th, 2023
Gene Product: October 28th, 2014
Gene Model: March 2nd, 2021
11 months agommp18  :
7.01
GRMZM2G066290
Mira, MM et al. 2023. Plant stem cells under low oxygen: metabolic rewiring by phytoglobin underlies stem cell functionality. Plant Physiol. :doi: 10.1093/plphys/kiad344.     Reference: June 13th, 2023
Variation: September 4th, 2018
Gene Model: September 4th, 2018
11 months agohvp1 human viral protein homolog1:
9.02
GRMZM5G852396
Mira, MM et al. 2023. Plant stem cells under low oxygen: metabolic rewiring by phytoglobin underlies stem cell functionality. Plant Physiol. :doi: 10.1093/plphys/kiad344.     Reference: June 13th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: June 1st, 2017
11 months agogrftf2 GRF-transcription factor 2:
2.07
   Peng, B et al. 2021. Genome-wide association studies of leaf angle in maize. Mol Breed. 41:50.     Reference: June 13th, 2023
Variation: September 25th, 2007
11 months agomyo3 myosin3:
1.07
GRMZM2G113202
Dongdong Dang et al. 2023. Genome-Wide Association Study and Genomic Prediction on Plant Architecture Traits in Sweet Corn and Waxy Corn. 12:303.     Reference: June 13th, 2023
Gene Product: September 1st, 2003
Variation: January 31st, 2015
Gene Model: February 1st, 2015
11 months agosi606008c01  :
1.08
GRMZM2G103672
Dongdong Dang et al. 2023. Genome-Wide Association Study and Genomic Prediction on Plant Architecture Traits in Sweet Corn and Waxy Corn. 12:303.     Reference: June 13th, 2023
Gene Product: April 24th, 2008
Gene Model: August 10th, 2022
11 months agosi683003d07  :
1.08
GRMZM2G103672
Dongdong Dang et al. 2023. Genome-Wide Association Study and Genomic Prediction on Plant Architecture Traits in Sweet Corn and Waxy Corn. 12:303.     Reference: June 13th, 2023
Gene Product: April 24th, 2008
Gene Model: August 12th, 2022
11 months agorld2 rolled leaf2:
1.01
GRMZM2G042250
Dongdong Dang et al. 2023. Genome-Wide Association Study and Genomic Prediction on Plant Architecture Traits in Sweet Corn and Waxy Corn. 12:303.     Reference: June 13th, 2023
Gene Product: October 6th, 2015
Variation: January 18th, 2010
Gene Model: October 6th, 2015
11 months agocl1480_2a  :
4.09
GRMZM2G161969
Mira, MM et al. 2023. Plant stem cells under low oxygen: metabolic rewiring by phytoglobin underlies stem cell functionality. Plant Physiol. :doi: 10.1093/plphys/kiad344.     Reference: June 13th, 2023
Variation: September 25th, 2007
Gene Model: May 26th, 2021
11 months agosudh4 succinate dehydrogenase4:
 
GRMZM2G079888
Mira, MM et al. 2023. Plant stem cells under low oxygen: metabolic rewiring by phytoglobin underlies stem cell functionality. Plant Physiol. :doi: 10.1093/plphys/kiad344.     Reference: June 13th, 2023
Gene Product: October 25th, 2016
Variation: October 25th, 2016
Gene Model: October 25th, 2016
11 months agosudh5 succinate dehydrogenase5:
 
GRMZM2G109271
Mira, MM et al. 2023. Plant stem cells under low oxygen: metabolic rewiring by phytoglobin underlies stem cell functionality. Plant Physiol. :doi: 10.1093/plphys/kiad344.     Reference: June 13th, 2023
Gene Product: October 25th, 2016
Gene Model: October 25th, 2016
11 months agosudh6 succinate dehydrogenase6:
 
GRMZM2G398876
Mira, MM et al. 2023. Plant stem cells under low oxygen: metabolic rewiring by phytoglobin underlies stem cell functionality. Plant Physiol. :doi: 10.1093/plphys/kiad344.     Reference: June 13th, 2023
Gene Product: October 25th, 2016
Gene Model: October 25th, 2016
11 months agosudh12 succinate dehydrogenase12:
 
GRMZM2G146965
Mira, MM et al. 2023. Plant stem cells under low oxygen: metabolic rewiring by phytoglobin underlies stem cell functionality. Plant Physiol. :doi: 10.1093/plphys/kiad344.     Reference: June 13th, 2023
Gene Product: October 25th, 2016
Variation: October 25th, 2016
Gene Model: October 25th, 2016
11 months agoaco6 aconitase6:
 
GRMZM2G364988
Mira, MM et al. 2023. Plant stem cells under low oxygen: metabolic rewiring by phytoglobin underlies stem cell functionality. Plant Physiol. :doi: 10.1093/plphys/kiad344.     Reference: June 13th, 2023
Gene Product: September 1st, 2003
Gene Model: November 15th, 2019
11 months agoaco10 aconitase10:
 
GRMZM2G127429
Mira, MM et al. 2023. Plant stem cells under low oxygen: metabolic rewiring by phytoglobin underlies stem cell functionality. Plant Physiol. :doi: 10.1093/plphys/kiad344.     Reference: June 13th, 2023
Gene Product: September 1st, 2003
Gene Model: November 15th, 2019
11 months agoaco11 aconitase11:
 
GRMZM2G311024
Mira, MM et al. 2023. Plant stem cells under low oxygen: metabolic rewiring by phytoglobin underlies stem cell functionality. Plant Physiol. :doi: 10.1093/plphys/kiad344.     Reference: June 13th, 2023
Gene Product: September 1st, 2003
Gene Model: November 15th, 2019
11 months agosus7 sucrose synthase7:
 
GRMZM2G060659
Mira, MM et al. 2023. Plant stem cells under low oxygen: metabolic rewiring by phytoglobin underlies stem cell functionality. Plant Physiol. :doi: 10.1093/plphys/kiad344.     Reference: June 13th, 2023
Gene Product: October 25th, 2006
Gene Model: July 13th, 2020
11 months agochx5 cation/H+ antiporter 5:
 
GRMZM2G366851
Dongdong Dang et al. 2023. Genome-Wide Association Study and Genomic Prediction on Plant Architecture Traits in Sweet Corn and Waxy Corn. 12:303.     Reference: June 13th, 2023
Gene Product: April 26th, 2021
Gene Model: April 26th, 2021
11 months agocyp41 cytochrome P450 41:
 
   Dongdong Dang et al. 2023. Genome-Wide Association Study and Genomic Prediction on Plant Architecture Traits in Sweet Corn and Waxy Corn. 12:303.     Reference: June 13th, 2023
Gene Product: December 30th, 2022
11 months agoIDP701  :
1.03
GRMZM2G048703
Dongdong Dang et al. 2023. Genome-Wide Association Study and Genomic Prediction on Plant Architecture Traits in Sweet Corn and Waxy Corn. 12:303.     Reference: June 13th, 2023
Variation: March 31st, 2005
Gene Model: February 12th, 2019
11 months agoIDP155  :
4.11
GRMZM2G131087
Dongdong Dang et al. 2023. Genome-Wide Association Study and Genomic Prediction on Plant Architecture Traits in Sweet Corn and Waxy Corn. 12:303.     Reference: June 13th, 2023
Variation: March 31st, 2005
Gene Model: January 13th, 2021
11 months agome9 NAD-dependent malic enzyme9:
7.03
GRMZM2G406672
Mira, MM et al. 2023. Plant stem cells under low oxygen: metabolic rewiring by phytoglobin underlies stem cell functionality. Plant Physiol. :doi: 10.1093/plphys/kiad344.     Reference: June 13th, 2023
Gene Product: June 4th, 2020
Gene Model: June 4th, 2020
11 months agoaxs1 alpha-xylosidase1:
 
   Li, H et al. 2023. ZmXYL modulates auxin-induced maize growth. Plant J. :doi: 10.1111/tpj.16348.     Reference: June 12th, 2023
Gene Product: June 12th, 2023
Variation: June 12th, 2023
11 months agomlks2 Maize LINC KASH AtSINE-like2:
 
GRMZM2G000608
Ashraf, MA et al. 2023. A polarized nuclear position specifies the correct division plane during maize stomatal development. Plant Physiol. :doi: 10.1093/plphys/kiad329.     Reference: June 12th, 2023
Gene Product: February 1st, 2021
Variation: June 22nd, 2019
Gene Model: June 7th, 2018
11 months agopgl9 exopolygalacturonase9:
 
GRMZM2G418644
Honglin Wang et al. 2023. Pollen self-elimination CRISPR/Cas genome editing prevents transgenic pollen dispersal in maize. Plant Commun. :doi: 10.1016/j.xplc.2023.100637..     Reference: June 12th, 2023
Gene Product: October 4th, 2021
Gene Model: August 24th, 2018
11 months agoumc1591  :
5.04
GRMZM2G083526
Ma, PP et al. 2023. Genetic variation in ZmWAX2 confers maize resistance to Fusarium verticillioides. Plant Biotechnol J. :doi: 10.1111/pbi.14093.     Reference: June 9th, 2023
Variation: September 1st, 2003
Gene Model: June 28th, 2018
11 months agocys7 cysteine synthase7:
 
GRMZM2G104237
Xiaoxiao Yang et al. 2023. Hydrogen sulfide alleviates chromium toxicity by promoting chromium sequestration and re-establishing redox homeostasis in Zea mays L Environ Pollut. :doi: 10.1016/j.envpol.2023.121958.     Reference: June 8th, 2023
Gene Product: September 1st, 2003
Gene Model: December 1st, 2018
11 months agocys8 cysteine synthase8:
 
   Xiaoxiao Yang et al. 2023. Hydrogen sulfide alleviates chromium toxicity by promoting chromium sequestration and re-establishing redox homeostasis in Zea mays L Environ Pollut. :doi: 10.1016/j.envpol.2023.121958.     Reference: June 8th, 2023
Gene Product: September 1st, 2003
11 months agopiip2 physical impedance induced protein2:
5.03
GRMZM2G300135
Xiaokang Han et al. 2023. Transcriptomic Analysis of Three Differentially Senescing Maize (Zea mays L.) Inbred Lines upon Heat Stress Int J Mol Sci. 24:9782.     Reference: June 6th, 2023
Gene Product: September 1st, 2003
Variation: January 6th, 2015
Gene Model: January 6th, 2015
11 months agogst24 glutathione transferase24:
5.07
GRMZM2G032856
Xiaokang Han et al. 2023. Transcriptomic Analysis of Three Differentially Senescing Maize (Zea mays L.) Inbred Lines upon Heat Stress Int J Mol Sci. 24:9782.     Reference: June 6th, 2023
Gene Product: September 1st, 2003
Variation: August 20th, 2010
Gene Model: July 27th, 2016
11 months agogst29 glutathione transferase29:
3.05
GRMZM2G127789
Xiaokang Han et al. 2023. Transcriptomic Analysis of Three Differentially Senescing Maize (Zea mays L.) Inbred Lines upon Heat Stress Int J Mol Sci. 24:9782.     Reference: June 6th, 2023
Gene Product: September 1st, 2003
Gene Model: July 27th, 2016
11 months agogrx14 glutaredoxin14:
 
GRMZM2G318180
Xiaokang Han et al. 2023. Transcriptomic Analysis of Three Differentially Senescing Maize (Zea mays L.) Inbred Lines upon Heat Stress Int J Mol Sci. 24:9782.     Reference: June 6th, 2023
Gene Product: January 21st, 2021
Gene Model: December 14th, 2021
11 months agoarf2 ADP-ribosylation factor homolog2:
 
   Zhang, J et al. 2023. Integrated Multi-Omics Reveals Significant Roles of Non-Additively Expressed Small RNAs in Heterosis for Maize Plant Height Int J Mol Sci. 24:9150.     Reference: June 5th, 2023
Gene Product: June 23rd, 2012
Variation: March 3rd, 2023
11 months agogst5 glutathione transferase5:
1.11
GRMZM2G308687
Zhang, J et al. 2023. Integrated Multi-Omics Reveals Significant Roles of Non-Additively Expressed Small RNAs in Heterosis for Maize Plant Height Int J Mol Sci. 24:9150.     Reference: June 5th, 2023
Gene Product: September 1st, 2003
Variation: July 22nd, 2010
Gene Model: July 27th, 2016
11 months agozim24 ZIM-transcription factor 24:
 
   Zhang, J et al. 2023. Integrated Multi-Omics Reveals Significant Roles of Non-Additively Expressed Small RNAs in Heterosis for Maize Plant Height Int J Mol Sci. 24:9150.     Reference: June 5th, 2023
Gene Product: February 24th, 2021
11 months agoaaap20 amino acid/auxin permease20:
 
GRMZM2G078024
Zhang, J et al. 2023. Integrated Multi-Omics Reveals Significant Roles of Non-Additively Expressed Small RNAs in Heterosis for Maize Plant Height Int J Mol Sci. 24:9150.     Reference: June 5th, 2023
Gene Product: March 31st, 2021
Gene Model: March 30th, 2021
11 months agopco101160  :
7.05
GRMZM2G000718
Zhang, J et al. 2023. Integrated Multi-Omics Reveals Significant Roles of Non-Additively Expressed Small RNAs in Heterosis for Maize Plant Height Int J Mol Sci. 24:9150.     Reference: June 5th, 2023
Variation: September 25th, 2007
Gene Model: September 1st, 2021
11 months agopht1 phosphate transporter protein1:
5.03
GRMZM2G326707
Wang, YF et al. 2023. The long-noncoding RNA PILNCR2 increases low phosphate tolerance in maize by interfering with miRNA399-guided cleavage of ZmPHT1s. Molecular Plant. :doi: 10.1016/j.molp.2023.05.009.     Reference: June 2nd, 2023
Gene Product: June 16th, 2016
Variation: February 4th, 2011
Gene Model: May 27th, 2015
11 months agocks1 corkscrew1:
 
   Alexander, DL; Mellor, E A; Langdale, J. 2005. Plant Physiol. 138:1396-1408     Reference: December 29th, 2005
Gene Product: December 29th, 2005
Variation: June 1st, 2023
11 months agosdg101 set domain gene101:
7.02
AC233961.1_FG001
Emily Nischwitz et al. 2023. DNA damage repair proteins across the Tree of Life. 26:106778.     Reference: May 31st, 2023
Gene Product: June 30th, 2017
Variation: June 29th, 2017
Gene Model: June 29th, 2017
11 months agocl41475_1  :
2.08
GRMZM2G001297
Emily Nischwitz et al. 2023. DNA damage repair proteins across the Tree of Life. 26:106778.     Reference: May 31st, 2023
Variation: September 25th, 2007
Gene Model: August 16th, 2021
11 months agothx34 Trihelix-transcription factor 34:
 
GRMZM2G162840
Emily Nischwitz et al. 2023. DNA damage repair proteins across the Tree of Life. 26:106778.     Reference: May 31st, 2023
Gene Product: November 9th, 2021
Gene Model: August 7th, 2019
11 months agomha5 membrane H(+)-ATPase5:
 
GRMZM2G341058
Ding, YH et al. 2023. Identification of Germplasm and Sugar Transporter Gene ZmSWEET1b Associated with Salt Tolerance in Maize J Plant Growth Reg. :doi: 10.1007/s00344-023-11033-9.     Reference: May 31st, 2023
Gene Product: September 1st, 2003
Gene Model: January 10th, 2020
11 months agomha7 membrane H(+)-ATPase7:
 
GRMZM2G148374
Ding, YH et al. 2023. Identification of Germplasm and Sugar Transporter Gene ZmSWEET1b Associated with Salt Tolerance in Maize J Plant Growth Reg. :doi: 10.1007/s00344-023-11033-9.     Reference: May 31st, 2023
Gene Product: September 1st, 2003
Gene Model: January 10th, 2020
11 months agohak16 potassium high-affinity transporter16:
 
GRMZM2G084486
Ding, YH et al. 2023. Identification of Germplasm and Sugar Transporter Gene ZmSWEET1b Associated with Salt Tolerance in Maize J Plant Growth Reg. :doi: 10.1007/s00344-023-11033-9.     Reference: May 31st, 2023
Gene Product: March 12th, 2020
Gene Model: March 12th, 2020
11 months agohak21 potassium high-affinity transporter21:
 
GRMZM2G438960
Ding, YH et al. 2023. Identification of Germplasm and Sugar Transporter Gene ZmSWEET1b Associated with Salt Tolerance in Maize J Plant Growth Reg. :doi: 10.1007/s00344-023-11033-9.     Reference: May 31st, 2023
Gene Product: March 12th, 2020
Gene Model: March 12th, 2020
11 months agothx56 Trihelix-transcription factor 56:
 
GRMZM2G436533
Emily Nischwitz et al. 2023. DNA damage repair proteins across the Tree of Life. 26:106778.     Reference: May 31st, 2023
Gene Product: November 9th, 2021
Gene Model: November 9th, 2021
11 months agotubtf2 TUB-transcription factor 2:
3.06
GRMZM5G866954
Huilong Chen et al. 2023. Whole-genome and dispersed duplication, including transposed duplication, jointly advance the evolution of TLP genes in seven representative Poaceae lineages BMC Genomics. 24:290.     Reference: May 30th, 2023
Gene Product: September 29th, 2015
Gene Model: September 29th, 2015
11 months agotubtf1 TUB-transcription factor 1:
 
   Huilong Chen et al. 2023. Whole-genome and dispersed duplication, including transposed duplication, jointly advance the evolution of TLP genes in seven representative Poaceae lineages BMC Genomics. 24:290.     Reference: May 30th, 2023
Gene Product: September 29th, 2015
11 months agotubtf10 TUB-transcription factor 10:
 
   Huilong Chen et al. 2023. Whole-genome and dispersed duplication, including transposed duplication, jointly advance the evolution of TLP genes in seven representative Poaceae lineages BMC Genomics. 24:290.     Reference: May 30th, 2023
Gene Product: September 29th, 2015
11 months agotubtf11 TUB-transcription factor 11:
 
   Huilong Chen et al. 2023. Whole-genome and dispersed duplication, including transposed duplication, jointly advance the evolution of TLP genes in seven representative Poaceae lineages BMC Genomics. 24:290.     Reference: May 30th, 2023
Gene Product: September 29th, 2015
11 months agotubtf12 TUB-transcription factor 12:
 
   Huilong Chen et al. 2023. Whole-genome and dispersed duplication, including transposed duplication, jointly advance the evolution of TLP genes in seven representative Poaceae lineages BMC Genomics. 24:290.     Reference: May 30th, 2023
Gene Product: September 29th, 2015
11 months agotubtf13 TUB-transcription factor 13:
 
   Huilong Chen et al. 2023. Whole-genome and dispersed duplication, including transposed duplication, jointly advance the evolution of TLP genes in seven representative Poaceae lineages BMC Genomics. 24:290.     Reference: May 30th, 2023
Gene Product: September 29th, 2015
11 months agotubtf3 TUB-transcription factor 3:
 
   Huilong Chen et al. 2023. Whole-genome and dispersed duplication, including transposed duplication, jointly advance the evolution of TLP genes in seven representative Poaceae lineages BMC Genomics. 24:290.     Reference: May 30th, 2023
Gene Product: September 29th, 2015
11 months agotubtf5 TUB-transcription factor 5:
 
   Huilong Chen et al. 2023. Whole-genome and dispersed duplication, including transposed duplication, jointly advance the evolution of TLP genes in seven representative Poaceae lineages BMC Genomics. 24:290.     Reference: May 30th, 2023
Gene Product: September 29th, 2015
11 months agotubtf8 TUB-transcription factor 8:
 
   Huilong Chen et al. 2023. Whole-genome and dispersed duplication, including transposed duplication, jointly advance the evolution of TLP genes in seven representative Poaceae lineages BMC Genomics. 24:290.     Reference: May 30th, 2023
Gene Product: September 29th, 2015
11 months agotubtf14 TUB-transcription factor 14:
10.02
GRMZM2G001272
Huilong Chen et al. 2023. Whole-genome and dispersed duplication, including transposed duplication, jointly advance the evolution of TLP genes in seven representative Poaceae lineages BMC Genomics. 24:290.     Reference: May 30th, 2023
Gene Product: September 29th, 2015
Variation: December 16th, 2011
Gene Model: September 29th, 2015
11 months agotubtf7 TUB-transcription factor 7:
4.08
GRMZM2G163726
Huilong Chen et al. 2023. Whole-genome and dispersed duplication, including transposed duplication, jointly advance the evolution of TLP genes in seven representative Poaceae lineages BMC Genomics. 24:290.     Reference: May 30th, 2023
Gene Product: September 29th, 2015
Gene Model: September 29th, 2015
11 months agotubtf9 TUB-transcription factor 9:
5.06
GRMZM2G115701
Huilong Chen et al. 2023. Whole-genome and dispersed duplication, including transposed duplication, jointly advance the evolution of TLP genes in seven representative Poaceae lineages BMC Genomics. 24:290.     Reference: May 30th, 2023
Gene Product: September 29th, 2015
Gene Model: September 29th, 2015
11 months agoftcl3 5-formyltetrahydrofolate cyclo-ligase3:
5.03
GRMZM2G124863
Li, XH et al. 2023. Genome-wide Association Study of Root Hair Length in Maize Tropical Plant Biology. :doi: 10.1007/s12042-023-09331-3.     Reference: May 29th, 2023
Gene Product: August 20th, 2014
Gene Model: January 14th, 2021
11 months agolac10 laccase10:
 
GRMZM2G140527
Li, XH et al. 2023. Genome-wide Association Study of Root Hair Length in Maize Tropical Plant Biology. :doi: 10.1007/s12042-023-09331-3.     Reference: May 29th, 2023
Gene Product: March 31st, 2018
Variation: May 21st, 2021
Gene Model: May 6th, 2016
11 months agozim8 ZIM-transcription factor 8:
 
   Emeline Nanou Dossa et al. 2023. Genetic resources and breeding of maize for Striga resistance: a review Frontiers in Plant Science. 14:1163785.     Reference: May 27th, 2023
Gene Product: February 24th, 2021
11 months agocitt1 citrate transporter1:
1.01
GRMZM2G028521
Emeline Nanou Dossa et al. 2023. Genetic resources and breeding of maize for Striga resistance: a review Frontiers in Plant Science. 14:1163785.     Reference: May 27th, 2023
Variation: April 26th, 2016
Gene Model: April 26th, 2016
11 months agoumc60  :
3.06
GRMZM2G094771
Emeline Nanou Dossa et al. 2023. Genetic resources and breeding of maize for Striga resistance: a review Frontiers in Plant Science. 14:1163785.     Reference: May 27th, 2023
Variation: September 1st, 2003
Gene Model: April 4th, 2018
11 months agoaed3 aspartyl protease3:
 
GRMZM2G024099
Emeline Nanou Dossa et al. 2023. Genetic resources and breeding of maize for Striga resistance: a review Frontiers in Plant Science. 14:1163785.     Reference: May 27th, 2023
Gene Product: September 26th, 2020
Gene Model: September 26th, 2020
11 months agoplc9 phospholipase C9:
 
GRMZM2G422670
Emeline Nanou Dossa et al. 2023. Genetic resources and breeding of maize for Striga resistance: a review Frontiers in Plant Science. 14:1163785.     Reference: May 27th, 2023
Gene Product: January 12th, 2021
Gene Model: January 12th, 2021
11 months agocl29338_1  :
10.04
GRMZM2G006948
Emeline Nanou Dossa et al. 2023. Genetic resources and breeding of maize for Striga resistance: a review Frontiers in Plant Science. 14:1163785.     Reference: May 27th, 2023
Variation: September 25th, 2007
Gene Model: September 12th, 2021
11 months agoig3 indeterminate gametophyte3:
 
   Chettoor, AM et al. 2023. Genetics doi: 10.1093/genetics/iyad101     Reference: May 26th, 2023
Variation: November 12th, 2022
11 months agogl3 glossy3:
4.08
GRMZM2G162434
Zhao, M et al. 2023. Bacterium-enabled transient gene activation by artificial transcription factors for resolving gene regulation in maize Plant Cell. :doi: 10.1093/plcell/koad155.     Reference: May 26th, 2023
Gene Product: June 2nd, 2012
Variation: June 2nd, 2012
Gene Model: June 2nd, 2012
11 months agoig2 indeterminate gametophyte2:
8.06
GRMZM2G030284
Chettoor, AM et al. 2023. Genetics doi: 10.1093/genetics/iyad101     Reference: May 26th, 2023
Variation: November 12th, 2022
Gene Model: September 2nd, 2019
11 months agobzip40 bZIP-transcription factor 40:
2.06
AC203957.3_FG004
Huiling Cheng et al. 2023. TSPTFBS 2.0: trans-species prediction of transcription factor binding sites and identification of their core motifs in plants. Frontiers in Plant Science. 14:1175837.     Reference: May 25th, 2023
Variation: September 1st, 2003
Gene Model: February 16th, 2018
11 months agomyb37 MYB-transcription factor 37:
5.01
GRMZM2G455869
Huiling Cheng et al. 2023. TSPTFBS 2.0: trans-species prediction of transcription factor binding sites and identification of their core motifs in plants. Frontiers in Plant Science. 14:1175837.     Reference: May 25th, 2023
Variation: September 1st, 2003
Gene Model: June 15th, 2018
11 months agoalf2 Alfin-like-transcription factor 2:
 
   Huiling Cheng et al. 2023. TSPTFBS 2.0: trans-species prediction of transcription factor binding sites and identification of their core motifs in plants. Frontiers in Plant Science. 14:1175837.     Reference: May 25th, 2023
Gene Product: November 11th, 2021
11 months agoalf7 Alfin-like-transcription factor 7:
 
   Huiling Cheng et al. 2023. TSPTFBS 2.0: trans-species prediction of transcription factor binding sites and identification of their core motifs in plants. Frontiers in Plant Science. 14:1175837.     Reference: May 25th, 2023
Gene Product: November 11th, 2021
11 months agocol13 C2C2-CO-like-transcription factor 13:
 
   Huiling Cheng et al. 2023. TSPTFBS 2.0: trans-species prediction of transcription factor binding sites and identification of their core motifs in plants. Frontiers in Plant Science. 14:1175837.     Reference: May 25th, 2023
Gene Product: June 18th, 2018
11 months agocol7 C2C2-CO-like-transcription factor 7:
 
   Huiling Cheng et al. 2023. TSPTFBS 2.0: trans-species prediction of transcription factor binding sites and identification of their core motifs in plants. Frontiers in Plant Science. 14:1175837.     Reference: May 25th, 2023
Gene Product: June 18th, 2018
11 months agocol8 C2C2-CO-like-transcription factor 8:
 
   Huiling Cheng et al. 2023. TSPTFBS 2.0: trans-species prediction of transcription factor binding sites and identification of their core motifs in plants. Frontiers in Plant Science. 14:1175837.     Reference: May 25th, 2023
Gene Product: June 18th, 2018
11 months agocchh133 Cys2His2 Zinc Finger133:
 
   Huiling Cheng et al. 2023. TSPTFBS 2.0: trans-species prediction of transcription factor binding sites and identification of their core motifs in plants. Frontiers in Plant Science. 14:1175837.     Reference: May 25th, 2023
Gene Product: November 14th, 2022
11 months agoca3p2 CCAAT-HAP3-transcription factor 32:
 
   Adnan Rasheed et al. 2023. Breeding Drought-Tolerant Maize (Zea mays) Using Molecular Breeding Tools: Recent Advancements and Future Prospective Agronomy. 13:1459.     Reference: May 25th, 2023
Gene Product: August 9th, 2016
11 months agotcptf23 TCP-transcription factor 23:
 
   Huiling Cheng et al. 2023. TSPTFBS 2.0: trans-species prediction of transcription factor binding sites and identification of their core motifs in plants. Frontiers in Plant Science. 14:1175837.     Reference: May 25th, 2023
Gene Product: September 27th, 2019
Variation: March 18th, 2021
11 months agoknox6 knotted related homeobox6:
5.04
GRMZM2G370332
Huiling Cheng et al. 2023. TSPTFBS 2.0: trans-species prediction of transcription factor binding sites and identification of their core motifs in plants. Frontiers in Plant Science. 14:1175837.     Reference: May 25th, 2023
Gene Product: September 1st, 2003
Variation: August 12th, 2014
Gene Model: August 12th, 2014
11 months agomab16 math-btb16:
 
GRMZM2G172210
Huiling Cheng et al. 2023. TSPTFBS 2.0: trans-species prediction of transcription factor binding sites and identification of their core motifs in plants. Frontiers in Plant Science. 14:1175837.     Reference: May 25th, 2023
Gene Product: June 6th, 2014
Variation: May 10th, 2017
Gene Model: February 14th, 2017
11 months agocol18 C2C2-CO-like-transcription factor 18:
 
GRMZM2G148772
Huiling Cheng et al. 2023. TSPTFBS 2.0: trans-species prediction of transcription factor binding sites and identification of their core motifs in plants. Frontiers in Plant Science. 14:1175837.     Reference: May 25th, 2023
Gene Product: June 18th, 2018
Gene Model: June 16th, 2018
11 months agoumc1413  :
6.05
GRMZM2G030123
Shan Chen et al. 2023. Genome-wide association study presents insights into the genetic architecture of drought tolerance in maize seedlings under field water-deficit conditions. Frontiers in Plant Science. 14:1165582.     Reference: May 24th, 2023
Variation: September 1st, 2003
Gene Model: August 27th, 2018
11 months agoumc1963  :
4.04
GRMZM2G171311
Shan Chen et al. 2023. Genome-wide association study presents insights into the genetic architecture of drought tolerance in maize seedlings under field water-deficit conditions. Frontiers in Plant Science. 14:1165582.     Reference: May 24th, 2023
Variation: September 1st, 2003
Gene Model: June 10th, 2018
11 months agoexo4 exochitinase4:
 
GRMZM2G117405
Shan Chen et al. 2023. Genome-wide association study presents insights into the genetic architecture of drought tolerance in maize seedlings under field water-deficit conditions. Frontiers in Plant Science. 14:1165582.     Reference: May 24th, 2023
Gene Product: May 31st, 2021
Gene Model: June 1st, 2021
11 months agoasft2 aliphatic suberin feruloyl transferase2:
 
   Patrick Z Ellsworth et al. 2023. Leaf cell wall properties and stomatal density influence oxygen isotope enrichment of leaf water. Plant Cell Environ. :doi: 10.1111/pce.14612.     Reference: May 23rd, 2023
Gene Product: May 23rd, 2023
11 months agobk2 brittle stalk2:
9.04 - 9.05
GRMZM2G109326
Xu, W et al. 2023. Identification of ZmBK2 Gene Variation Involved in Regulating Maize Brittleness Genes. 14:1126.     Reference: May 23rd, 2023
Gene Product: March 31st, 2021
Variation: March 6th, 2012
Gene Model: March 5th, 2012
11 months agohct10 hydroxycinnamoyltransferase10:
 
GRMZM2G034360
Patrick Z Ellsworth et al. 2023. Leaf cell wall properties and stomatal density influence oxygen isotope enrichment of leaf water. Plant Cell Environ. :doi: 10.1111/pce.14612.     Reference: May 23rd, 2023
Gene Product: November 7th, 2015
Gene Model: May 18th, 2016
11 months agoflz12 FCS-like zinc finger12:
 
GRMZM2G051752
Seema Sahay et al. 2023. Genetic control of photoprotection and photosystem II operating efficiency in plants. New Phytol.     Reference: May 22nd, 2023
Gene Product: March 29th, 2021
Gene Model: March 30th, 2021
11 months agosaf1 safener induced1:
1.03
GRMZM2G042639
Sun, LL et al. 2023. Transcriptomic analysis of maize uncovers putative genes involved in metabolic detoxification under four safeners treatment Pestic Biochem Physiol. :doi: 10.1016/j.pestbp.2023.105465.     Reference: May 17th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
Gene Model: December 24th, 2015
11 months agogst6 glutathione transferase6:
7.01
GRMZM2G129357
Sun, LL et al. 2023. Transcriptomic analysis of maize uncovers putative genes involved in metabolic detoxification under four safeners treatment Pestic Biochem Physiol. :doi: 10.1016/j.pestbp.2023.105465.     Reference: May 17th, 2023
Gene Product: September 1st, 2003
Variation: July 22nd, 2010
Gene Model: July 27th, 2016
11 months agocadtfr4 CCAAT-DR1-transcription factor 4:
 
   Cao, LR et al. 2023. Genome-wide identification of NF-Y gene family in maize (Zea mays L.) and the positive role of ZmNF-YC12 in drought resistance and recovery ability Frontiers in Plant Science. 14:1159955.     Reference: May 17th, 2023
Gene Product: August 9th, 2016
11 months agocadtfr9 CCAAT-DR1-transcription factor 9:
 
   Cao, LR et al. 2023. Genome-wide identification of NF-Y gene family in maize (Zea mays L.) and the positive role of ZmNF-YC12 in drought resistance and recovery ability Frontiers in Plant Science. 14:1159955.     Reference: May 17th, 2023
Gene Product: August 9th, 2016
11 months agoca2p8 CCAAT-HAP2-transcription factor 28:
 
   Cao, LR et al. 2023. Genome-wide identification of NF-Y gene family in maize (Zea mays L.) and the positive role of ZmNF-YC12 in drought resistance and recovery ability Frontiers in Plant Science. 14:1159955.     Reference: May 17th, 2023
Gene Product: August 9th, 2016
11 months agoca2p9 CCAAT-HAP2-transcription factor 29:
 
   Cao, LR et al. 2023. Genome-wide identification of NF-Y gene family in maize (Zea mays L.) and the positive role of ZmNF-YC12 in drought resistance and recovery ability Frontiers in Plant Science. 14:1159955.     Reference: May 17th, 2023
Gene Product: August 9th, 2016
11 months agoca5p1 CCAAT-HAP5-transcription factor 51:
 
   Cao, LR et al. 2023. Genome-wide identification of NF-Y gene family in maize (Zea mays L.) and the positive role of ZmNF-YC12 in drought resistance and recovery ability Frontiers in Plant Science. 14:1159955.     Reference: May 17th, 2023
Gene Product: August 9th, 2016
11 months agoca5p13 CCAAT-HAP5-transcription factor 513:
 
   Cao, LR et al. 2023. Genome-wide identification of NF-Y gene family in maize (Zea mays L.) and the positive role of ZmNF-YC12 in drought resistance and recovery ability Frontiers in Plant Science. 14:1159955.     Reference: May 17th, 2023
Gene Product: August 9th, 2016
11 months agoca5p14 CCAAT-HAP5-transcription factor 514:
 
   Cao, LR et al. 2023. Genome-wide identification of NF-Y gene family in maize (Zea mays L.) and the positive role of ZmNF-YC12 in drought resistance and recovery ability Frontiers in Plant Science. 14:1159955.     Reference: May 17th, 2023
Gene Product: August 9th, 2016
11 months agoca5p15 CCAAT-HAP5-transcription factor 515:
 
   Cao, LR et al. 2023. Genome-wide identification of NF-Y gene family in maize (Zea mays L.) and the positive role of ZmNF-YC12 in drought resistance and recovery ability Frontiers in Plant Science. 14:1159955.     Reference: May 17th, 2023
Gene Product: August 9th, 2016
11 months agoca5p17 CCAAT-HAP5-transcription factor 517:
 
   Cao, LR et al. 2023. Genome-wide identification of NF-Y gene family in maize (Zea mays L.) and the positive role of ZmNF-YC12 in drought resistance and recovery ability Frontiers in Plant Science. 14:1159955.     Reference: May 17th, 2023
Gene Product: August 9th, 2016
11 months agoca5p2 CCAAT-HAP5-transcription factor 52:
 
   Cao, LR et al. 2023. Genome-wide identification of NF-Y gene family in maize (Zea mays L.) and the positive role of ZmNF-YC12 in drought resistance and recovery ability Frontiers in Plant Science. 14:1159955.     Reference: May 17th, 2023
Gene Product: August 9th, 2016
11 months agoca5p3 CCAAT-HAP5-transcription factor 53:
 
   Cao, LR et al. 2023. Genome-wide identification of NF-Y gene family in maize (Zea mays L.) and the positive role of ZmNF-YC12 in drought resistance and recovery ability Frontiers in Plant Science. 14:1159955.     Reference: May 17th, 2023
Gene Product: August 9th, 2016
11 months agoca5p4 CCAAT-HAP5-transcription factor 54:
 
   Cao, LR et al. 2023. Genome-wide identification of NF-Y gene family in maize (Zea mays L.) and the positive role of ZmNF-YC12 in drought resistance and recovery ability Frontiers in Plant Science. 14:1159955.     Reference: May 17th, 2023
Gene Product: August 9th, 2016
11 months agoca5p6 CCAAT-HAP5-transcription factor 56:
 
   Cao, LR et al. 2023. Genome-wide identification of NF-Y gene family in maize (Zea mays L.) and the positive role of ZmNF-YC12 in drought resistance and recovery ability Frontiers in Plant Science. 14:1159955.     Reference: May 17th, 2023
Gene Product: August 9th, 2016
11 months agoca5p7 CCAAT-HAP5-transcription factor 57:
 
   Cao, LR et al. 2023. Genome-wide identification of NF-Y gene family in maize (Zea mays L.) and the positive role of ZmNF-YC12 in drought resistance and recovery ability Frontiers in Plant Science. 14:1159955.     Reference: May 17th, 2023
Gene Product: August 9th, 2016
11 months agoca5p8 CCAAT-HAP5-transcription factor 58:
 
   Cao, LR et al. 2023. Genome-wide identification of NF-Y gene family in maize (Zea mays L.) and the positive role of ZmNF-YC12 in drought resistance and recovery ability Frontiers in Plant Science. 14:1159955.     Reference: May 17th, 2023
Gene Product: August 9th, 2016
11 months agogst19 glutathione transferase19:
6.04
GRMZM2G335618
Sun, LL et al. 2023. Transcriptomic analysis of maize uncovers putative genes involved in metabolic detoxification under four safeners treatment Pestic Biochem Physiol. :doi: 10.1016/j.pestbp.2023.105465.     Reference: May 17th, 2023
Gene Product: September 1st, 2003
Variation: August 18th, 2010
Gene Model: July 27th, 2016
11 months agogst31 glutathione transferase31:
1.01
GRMZM2G475059
Sun, LL et al. 2023. Transcriptomic analysis of maize uncovers putative genes involved in metabolic detoxification under four safeners treatment Pestic Biochem Physiol. :doi: 10.1016/j.pestbp.2023.105465.     Reference: May 17th, 2023
Gene Product: September 1st, 2003
Variation: August 21st, 2010
Gene Model: April 27th, 2016
11 months agogst37 glutathione transferase37:
7.04
GRMZM2G178079
Sun, LL et al. 2023. Transcriptomic analysis of maize uncovers putative genes involved in metabolic detoxification under four safeners treatment Pestic Biochem Physiol. :doi: 10.1016/j.pestbp.2023.105465.     Reference: May 17th, 2023
Gene Product: September 1st, 2003
Gene Model: July 27th, 2016
11 months agogst39 glutathione transferase39:
1.05
GRMZM2G028821
Sun, LL et al. 2023. Transcriptomic analysis of maize uncovers putative genes involved in metabolic detoxification under four safeners treatment Pestic Biochem Physiol. :doi: 10.1016/j.pestbp.2023.105465.     Reference: May 17th, 2023
Gene Product: September 1st, 2003
Gene Model: July 27th, 2016
11 months agoca5p9 CCAAT-HAP5-transcription factor 59:
4.08
GRMZM2G091433
Cao, LR et al. 2023. Genome-wide identification of NF-Y gene family in maize (Zea mays L.) and the positive role of ZmNF-YC12 in drought resistance and recovery ability Frontiers in Plant Science. 14:1159955.     Reference: May 17th, 2023
Gene Product: August 9th, 2016
Gene Model: August 8th, 2016
11 months agogst61 glutathione S-transferase61:
 
GRMZM2G162486
Sun, LL et al. 2023. Transcriptomic analysis of maize uncovers putative genes involved in metabolic detoxification under four safeners treatment Pestic Biochem Physiol. :doi: 10.1016/j.pestbp.2023.105465.     Reference: May 17th, 2023
Gene Product: September 1st, 2003
Gene Model: February 8th, 2022
11 months agocipk46 calcineurin B-like-interacting protein kinase46:
 
   Cao, Y et al. 2023. Beneficial rhizobacterium triggers induced systemic resistance of maize to Gibberella stalk rot via calcium signaling. Mol Plant-Microbe Interact.     Reference: May 16th, 2023
Gene Product: August 25th, 2018
11 months agocipk28 calcineurin B-like-interacting protein kinase28:
 
GRMZM2G412601
Cao, Y et al. 2023. Beneficial rhizobacterium triggers induced systemic resistance of maize to Gibberella stalk rot via calcium signaling. Mol Plant-Microbe Interact.     Reference: May 16th, 2023
Gene Product: August 25th, 2018
Gene Model: September 8th, 2021
11 months agoprc4 proteasome component4:
3.05
GRMZM2G171604
He, KH et al. 2023. Mining genes regulating root system architecture in maize based on data integration analysis Theor Appl Genet. 136:127.     Reference: May 15th, 2023
Gene Product: September 1st, 2003
Variation: May 6th, 2013
Gene Model: May 7th, 2013
11 months agonit2 nitrilase2:
 
GRMZM2G111225
Rajitha Gayan Lakmini Rathnayaka Pathiranage et al. 2023. The inhibition of maize (Zea mays L.) root stem cell regeneration by low oxygen is attenuated by Phytoglobin 1 (Pgb1) through changes in auxin and jasmonic acid. Planta. 257:120.     Reference: May 15th, 2023
Gene Product: May 29th, 2012
Variation: June 5th, 2012
Gene Model: May 29th, 2012
11 months agoprh17 protein phosphatase homolog17:
 
GRMZM2G164352
He, KH et al. 2023. Mining genes regulating root system architecture in maize based on data integration analysis Theor Appl Genet. 136:127.     Reference: May 15th, 2023
Gene Product: October 25th, 2021
Variation: April 28th, 2017
Gene Model: April 28th, 2017
11 months agoami1 amidase1:
 
GRMZM2G169087
Rajitha Gayan Lakmini Rathnayaka Pathiranage et al. 2023. The inhibition of maize (Zea mays L.) root stem cell regeneration by low oxygen is attenuated by Phytoglobin 1 (Pgb1) through changes in auxin and jasmonic acid. Planta. 257:120.   AT1G08980 (TAIR) Reference: May 15th, 2023
Gene Product: June 4th, 2012
Gene Model: August 11th, 2019
12 months agoomt4 Caffeoyl CoA O-methyltransferase4:
4.08
   Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: January 5th, 2014
Variation: September 25th, 2007
12 months agopcna1 proliferating cell nuclear antigen1:
5.08
   Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: September 1st, 2003
Variation: September 1st, 2003
12 months agosacd11 stearoyl-acyl-carrier-protein desaturase11:
10.04
AC215690.3_FG002
Luo, MJ et al. 2023. Genetic basis of the oil biosynthesis in ultra-high-oil maize grains with an oil content exceeding 20% Frontiers in Plant Science. 14:1168216.     Reference: May 12th, 2023
Gene Product: October 10th, 2016
Gene Model: October 10th, 2016
12 months agoroa1 replication origin activator1:
 
GRMZM2G100639
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: August 2nd, 2017
Variation: January 21st, 2011
Gene Model: June 1st, 2017
12 months agorop6 Rho-related protein6:
6.06
GRMZM2G176217
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: April 1st, 2004
Variation: May 7th, 2007
Gene Model: January 1st, 2015
12 months agogbptf17 GeBP-transcription factor 17:
5.07
GRMZM2G083886
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Variation: September 1st, 2003
Gene Model: July 13th, 2018
12 months agohat1 histone acetyltransferase1:
7.02
GRMZM5G851405
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: September 1st, 2003
Variation: January 28th, 2009
Gene Model: June 3rd, 2017
12 months agoumc1395  :
1.05
GRMZM2G329655
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Variation: September 1st, 2003
Gene Model: October 27th, 2016
12 months agokrp17 kinesin heavy chain17:
1.01
GRMZM2G092232
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Variation: September 1st, 2003
Gene Model: August 1st, 2017
12 months agoabi51 ABI3-VP1-transcription factor 51:
 
   Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: January 29th, 2022
12 months agoabi7 ABI3-VP1-transcription factor 7:
 
   Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: January 29th, 2022
12 months agolimtf13 LIM-transcription factor 13:
 
   Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: December 16th, 2019
12 months agomyb23 MYB-transcription factor 23:
 
   Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Variation: April 11th, 2017
12 months agotcptf16 TCP-transcription factor 16:
 
   Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: September 27th, 2019
12 months agotcptf21 TCP-transcription factor 21:
 
   Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: September 27th, 2019
12 months agoc3h45 C3H-transcription factor 345:
1.04 - 1.04
GRMZM2G003424
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Variation: December 30th, 2016
Gene Model: December 30th, 2016
12 months agoglk59 G2-like-transcription factor 59:
7.05
AC155434.2_FG005
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Variation: March 18th, 2021
Gene Model: February 2nd, 2018
12 months agopre1 premature senescence1:
1.05
   Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Variation: August 15th, 2005
12 months agohis2b2 histone2b2:
4.05
   Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: September 1st, 2003
Variation: June 23rd, 2014
12 months agosaur25 small auxin up RNA25:
2.07
GRMZM2G042712
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: November 26th, 2021
Gene Model: February 15th, 2018
12 months agohis2a1 histone2A1:
9.06
   Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: September 1st, 2003
Variation: September 3rd, 2015
12 months agocyc3 cyclin3:
6.02
   Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: June 26th, 2009
Variation: January 17th, 2014
12 months agonfd106 nucleosome/chromatin assembly factor D:
4.08
GRMZM2G125648
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Variation: February 21st, 2013
Gene Model: July 28th, 2016
12 months agohon106a histone H1 106a:
5.03
GRMZM2G121221
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: October 24th, 2017
Gene Model: October 31st, 2017
12 months agomlo7 barley mlo defense gene homolog7:
9.04
GRMZM2G416887
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Variation: October 19th, 2010
Gene Model: September 4th, 2014
12 months agoacco35 1-aminocyclopropane-1-carboxylate oxidase35:
5.07
GRMZM2G052422
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: May 16th, 2016
Variation: May 19th, 2015
Gene Model: May 19th, 2015
12 months agocyc6 cyclin6:
 
   Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Variation: January 17th, 2014
12 months agospo2 topoisomerase-like enzyme2:
 
GRMZM5G890820
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.   AT1G63990 (TAIR) Reference: May 12th, 2023
Gene Product: June 19th, 2014
Variation: June 8th, 2022
Gene Model: June 19th, 2014
12 months agoabk1 aurora b kinase1:
 
GRMZM2G132116
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Variation: November 18th, 2016
Gene Model: November 18th, 2016
12 months agocyc10 cyclin10:
 
GRMZM2G107377
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: June 26th, 2009
Variation: December 21st, 2016
Gene Model: December 21st, 2016
12 months agoplt6 phospholipid transfer protein homolog6:
 
GRMZM2G116167
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: September 1st, 2003
Gene Model: January 6th, 2017
12 months agomab10 math-btb10:
 
GRMZM2G154437
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: June 6th, 2014
Variation: May 10th, 2017
Gene Model: February 13th, 2017
12 months agoigps1 indole-3-glycerolphosphate synthase1:
 
GRMZM2G106950
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: March 29th, 2018
Variation: January 18th, 2021
Gene Model: March 29th, 2018
12 months agoigps3 indole-3-glycerolphosphate synthase3:
 
GRMZM2G145870
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: March 29th, 2018
Variation: January 18th, 2021
Gene Model: March 29th, 2018
12 months agodrepp2 developmentally regulated plasma membrane polypeptide2:
 
GRMZM2G007151
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: September 4th, 2019
Gene Model: September 4th, 2019
12 months agokr1 kauralexin reductase1:
 
GRMZM2G394968
Luo, MJ et al. 2023. Genetic basis of the oil biosynthesis in ultra-high-oil maize grains with an oil content exceeding 20% Frontiers in Plant Science. 14:1168216.     Reference: May 12th, 2023
Gene Product: September 16th, 2019
Gene Model: September 16th, 2019
12 months agokr2 kauralexin reductase2:
 
GRMZM2G073929
Luo, MJ et al. 2023. Genetic basis of the oil biosynthesis in ultra-high-oil maize grains with an oil content exceeding 20% Frontiers in Plant Science. 14:1168216.     Reference: May 12th, 2023
Gene Product: September 16th, 2019
Gene Model: September 16th, 2019
12 months agoaas9 auxin amido synthetase9:
 
GRMZM2G414460
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.   AT2G47750 (TAIR) Reference: May 12th, 2023
Gene Product: October 21st, 2019
Gene Model: October 21st, 2019
12 months agosaur29 small auxin up RNA29:
 
GRMZM2G343365
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: November 26th, 2021
Gene Model: November 26th, 2021
12 months agorad51d recombination protein51 gene d:
7.04
GRMZM2G055464
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: August 12th, 2016
Gene Model: June 19th, 2014
12 months agohct11 hydroxycinnamoyltransferase11:
7.02
GRMZM2G156296
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: November 7th, 2015
Variation: March 31st, 2005
Gene Model: May 18th, 2016
12 months agocyc5 cyclin5:
8.01
GRMZM2G005619
Ren, ZB et al. 2023. Deciphering transcriptional mechanisms of maize internodal elongation by regulatory network analysis. J Exp Bot. :doi: 10.1093/jxb/erad178.     Reference: May 12th, 2023
Gene Product: June 26th, 2009
Variation: January 18th, 2014
Gene Model: November 5th, 2014
12 months agoxlg1 extra-large guanine nucleotide-binding protein1:
1.05
GRMZM2G127739
Christian F Cantos et al. 2023. Extra-large G proteins have extra-large effects on agronomic traits and stress tolerance in maize and rice. Trends Plant Sci. :doi: 10.1016/j.tplants.2023.04.005.     Reference: May 9th, 2023
Gene Product: May 1st, 2018
Variation: May 1st, 2018
Gene Model: June 13th, 2017
12 months agoxlg3 extra-large guanine nucleotide-binding protein3:
6.01
GRMZM2G429113
Christian F Cantos et al. 2023. Extra-large G proteins have extra-large effects on agronomic traits and stress tolerance in maize and rice. Trends Plant Sci. :doi: 10.1016/j.tplants.2023.04.005.     Reference: May 9th, 2023
Gene Product: May 1st, 2018
Variation: May 1st, 2018
Gene Model: May 1st, 2018

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