Plant Stress Responses and Tolerance

This study shows that priming enhances plant thermotolerance by modulating mRNA translation efficiency and CTRD during heat stress.

The paper identifies a module involving MdLRR-RLK1 and MdATG3 that enhances apple resistance to abiotic stress through autophagy.

This study identifies 458 differentially accumulated proteins in Arabidopsis roots under uranium stress, revealing changes in cell wall dynamics, metal transport, and stress responses.

The paper investigates how cold stress remodels wood formation in Eucalyptus hybrids through a CBF-dependent regulatory pathway, identifying molecular mechanisms involved in secondary cell wall modification.

This study examines Na and Cl partitioning and transcriptome responses in date palms under NaCl stress, revealing variety-specific differences in Na mobility and gene expression.

The paper integrates gene expression analysis with ecophysiological responses to water deficit in tomato leaves, identifying key transcription factors and pathways involved in plant adaptation.

This study develops an osmotic gradient system to better understand plant root adaptation to osmotic stress and identifies gene expression changes in Arabidopsis roots.

This study shows date palm roots increase osmotic strength with drought by accumulating sugars over minerals, while leaves undergo membrane remodeling and ROS scavenging to prevent oxidative damage.

This study shows that osmotic stress in roots leads to lipoxygenase-dependent plastid remodeling and singlet oxygen production, which affects root growth and cell survival.

The paper analyzes the class III peroxidase gene family in Physcomitrium patens to infer ancient functions of land plant PRXs, identifying conserved clades and proposing candidate genes for further study.

This study identifies how calcium-binding genes and transcription factors interact during the osmotic phase to influence salt stress tolerance in bread wheat genotypes.

This study characterizes plant stress responses in camelina and sorghum using multi-modal physiological measurements to identify early indicators of environmental stress.

This study compares two rice genotypes under drought stress and bacterial infection, finding that gradual drought improves resistance through better ROS regulation and chlorophyll retention in high-tolerance plants.

This study investigates Arabidopsis thaliana's response to combined abiotic stresses, identifying molecular mechanisms and genes involved in stress resilience.

This study identifies AP2/ERF transcription factors as key to drought tolerance in Prosopis cineraria, showing higher copy numbers and DNA-binding affinity compared to drought-sensitive species.

This study identifies and analyzes CMF genes in cotton, showing their role in salt stress tolerance through phylogenetic, expression, and functional approaches.

The paper identifies CPKs/ECA1 as an intracellular calcium sensory module that regulates cytosolic calcium and ABA homeostasis to enhance plant osmotic stress tolerance.

This study examines how a moderate water deficit affects the proteome of developing maize ovaries, revealing changes linked to developmental slowdown and specific signaling pathways.

This study identifies contrasting salinity adaptation mechanisms in neighboring Brassica fruticulosa populations using genomic and transcriptomic analyses.

This study compares proteomic responses of drought-resistant and water-sensitive oat varieties under drought stress, identifying differentially expressed proteins and their functional roles in drought tolerance.

This study assesses antioxidant activity in Hevea brasiliensis genotypes under varying seasonal and climatic conditions to identify water deficit tolerance traits for breeding.

This study shows that expressing tomato cystatin SlCYS8 in potato improves drought tolerance and tuber yield by promoting root growth and enhancing primary metabolism.

This study identifies distinct biological roles of plant synaptotagmins, showing SYT1 and SYT3 are involved in abiotic stress resistance while SYT5 is linked to pathogen resistance.

The paper uses multi-omics analysis to identify ABA-dependent and -independent markers in tomato plants under single and combined stresses.

This study identifies HOS15 as a regulator of PRR7 protein turnover, linking circadian rhythms to freezing tolerance through CBF1 and COR15A upregulation in Arabidopsis.

This study shows chloroplastic ascorbate modulates plant metabolism through global metabolome rewiring and enzyme interactions, independent of oxidative stress.

This study overexpresses PpGL2 in soybean to improve drought tolerance, showing reduced oxidative stress and enhanced growth under drought conditions.

This study shows carbon nanoparticles improve rice growth and water use efficiency by enhancing the ABA pathway and aquaporin gene expression, leading to better stress tolerance.

This study identifies HcERF5 as a key transcription factor in kenaf that enhances drought tolerance through ABA-mediated signaling and regulates stress response genes.