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MetabolomicsInsights into Metabolic Changes Caused by the Trichoderma virens-Maize Root Interaction
The interactions of crops with root-colonizing endophytic microorganisms are highly relevant to agriculture, because endophytes can modify plant resistance to pests and increase crop yields. We investigated the interactions between the host plant Zea mays and the endophytic fungus Trichode...
2021-07-08 | MTBLS1964 | MetaboLights
ProteomicsZea mays under 24 h hypoxia - shotgun of soluble proteins
Maize (Zea mays L.) was hydroponically grown for 14 days and then stressed with hypoxia. Maize roots were sampled after 24 hours and analyzed by mass spectrometry.
ORGANISM(S): Zea mays (Maize) 
2022-05-06 | PXD033386 | Pride
Hypoxia Soluble proteins Shotgun Maize roots 
TranscriptomicsThe distinct transcription patterns correlate with the differential growth responses to salt stress in maize roots
We found that primary root (PR) is more resistant to salt stress compared with crown roots (CR) and seminal roots (SR). To understand better salt stress responses in maize roots, six RNA libraries were generated and sequenced from primary root (PR), primary roots under salt stress (PR-salt) , semina...
ORGANISM(S): Zea mays 
2014-03-01 | E-GEOD-53995 | biostudies-arrayexpress
MetabolomicsThe synergistic growth promoting mechanism of ""internal and external"" microbiota for maize growth mediated by dark septate endophytes

BACKGROUND: The coevolution and interaction between plants and microorganisms have long been a subject of significant research interest. Dark septate endophytes (DSE) have garnered great attention in contemporary research due to their functional diversity, in vitro cultivation ab...

2023-12-15 | MTBLS8903 | MetaboLights
MetabolomicsRhizosheath-associated Massilia contributes to maize growth heterosis

Heterosis, or hybrid vigor, refers to the phenomenon where F1 hybrids outperform their parental inbred lines. Despite more than a century of intensive research across various species, the genetic basis and environmental regulation of heterosis, particularly belowground, remain poorly understood. ...

2025-09-26 | MTBLS12613 | MetaboLights
TranscriptomicsTranscriptional characterization of maize roots in response to urea and nitrate
Although urea is the most used nitrogen fertilizer worldwide, little is known on the capacity of crop plants to use urea per se as a nitrogen source for development and growth. To date, the molecular and physiological bases of its transport have been investigated only in a limited number of species....
ORGANISM(S): Zea mays 
2015-03-02 | E-GEOD-53102 | biostudies-arrayexpress
MetabolomicsMaize Recruits Beneficial Microorganisms via Rhizosphere Metabolites as Signals to Construct a Functional Network for Saline-Alkaline Stress Resistance

Carbonate-type saline-alkaline stress severely constrains maize production; however, the synergistic response mechanisms between rhizosphere microorganisms and metabolites remain unclear. This study focused on maize fields in the carbonate chernozem region of the Songnen Plain in Northeast China....

2026-06-08 | MTBLS13956 | MetaboLights
ProteomicsThe tandem mass tags (TMT)quantitative proteomics were used for the analysis of protein expression in the maize roots after Holotrichia parallela larvae attacked
The tandem mass tags (TMT)quantitative proteomics were used for the analysis of protein expression in the maize roots after Holotrichia parallela larvae attacked
ORGANISM(S): Zea mays (Maize) 
2020-07-29 | PXD018939 | Pride
Lc-ms/ms Maize roots Tmt 
TranscriptomicsDigital gene expression analysis of early root infection of Sporisorium reilianum f.sp.zeae in maize based on susceptible and resistant lines
The maize smut fungus, Sporisorium reilianum f. sp. zeae, which is an important biotrophic pathogen responsible for extensive crop losses, infects maize by invading the root during the early seedling stage. In order to investigate disease-resistance mechanisms at this early seedling stage, digital g...
ORGANISM(S): Zea mays 
2012-12-03 | E-GEOD-40952 | biostudies-arrayexpress
ProteomicsMaize root LC-MSMS - Comparative proteomics of contrasting maize genotypes provides insights into salt-stress tolerance mechanisms
Salt stress is one major abiotic stress limiting maize grain yield throughout the world.To better understand maize salt tolerance molecular mechanism, comparative proteomic analysis was conducted on seedling roots of salt-tolerant genotype Jing724 and salt-sensitive genotype D9H under NaCl. Jing724 ...
ORGANISM(S): Zea mays (Maize) 
2017-12-05 | PXD007711 | Pride
Seedling root Itraq Salt tolerance Maize Comparative proteomic analysis 
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