Plant Stress Responses and Tolerance

This study evaluates maize mutants in miR394-regulated genes for drought tolerance and yield in field conditions, finding improved physiology and higher yield in mutant hybrids.

This study uses multi-omics analysis to investigate heat stress memory in Arabidopsis, identifying temporal transcriptomic, proteomic, and metabolomic responses during recovery.

This study shows that exogenous putrescine application improves growth and metabolic responses in hybrid poplar under salt stress.

This study identifies differentially expressed genes in Prosopis cineraria under heat stress, highlighting gene families involved in thermotolerance and providing insights for crop improvement.

This study investigates how chia leaves respond to heat stress through transcriptomic and lipidomic changes, revealing rapid reprogramming and lipid remodelling as key thermotolerance mechanisms.

The paper links wound-induced evaporative cooling to tissue repair in plants by identifying the CBF-SA module's role in activating cold-responsive genes and promoting lignin deposition.

This study identifies RBP47 family members as negative regulators of heat stress tolerance in Arabidopsis by showing their role in sequestering 40S ribosomal subunits and limiting translational restart.

The paper compares cold-responsive proteomes across five PACMAD grasses to assess conservation of protein-level responses and identifies LEA3 as a key cold-tolerant protein.

This study investigates how Arabidopsis responds to combined stressors of water deficit, heat, and elevated CO2, identifying OST1 and SLAH3 as key regulators of stomatal closure under these conditions.

This study examines transcriptomic and physiological responses of soybean plants to water deficit, heat stress, and their combination in field conditions, finding distinct responses compared to controlled environments.

This study identifies and analyzes CDPK genes in Aquilaria agallocha, showing their involvement in stress responses and agarwood formation through expression and interaction data.

This study shows that wave-like SnRK1 activation and Tre6P-sucrose imbalance occur early in alfalfa's salt stress response, linking metabolic shifts to growth inhibition.

This study identifies ERF transcription factors and hormonal interactions that mediate growth-defence trade-offs in rice seedlings under acute heat stress.

This study shows that overexpression of PpFLOT in moss reduces salt tolerance and alters growth, with effects linked to ROS and ion signaling.

This study shows that loss-of-function of GASA3 and AFP1 genes in Arabidopsis thaliana enhances drought tolerance by reducing water loss and increasing ABA signaling.

The paper investigates cell cycle regulation in plants during stress recovery, finding a conserved 'pause and play' mechanism involving CDKA;1 and ICK1 in Arabidopsis, Brachypodium, and Lolium.

This study uses proteomics to identify Ca2+-dependent and independent proteome changes in Arabidopsis under oxidative stress, revealing distinct patterns of protein abundance and degradation.

This study shows that modifying specific SAL genes in wheat improves yield and water productivity under field conditions while enhancing stress resilience.

This study shows exogenous melatonin increases root cortical area and improves drought resistance in cotton by enhancing water and nutrient uptake.

This study identifies a protein and genetic interaction between RACK1A and FSD1 that modulates salt stress response and development in Arabidopsis by regulating ROS levels and stress granule formation.

This study shows melatonin-priming reduces methylglyoxal accumulation and enhances autophagy in drought-sensitive cotton during PEG-induced drought stress.

This study identifies ERD14 as a chaperone for BRL3 receptor in Arabidopsis, showing it regulates BRL3 localization and activity to confer drought resistance.

The paper shows that calcium-triggered apoplastic ROS bursts balance gravity and mechanical signals to regulate root bending during soil navigation.

The paper identifies and characterizes the ScCAMTA transcription factor family in sugarcane, finding ScCAMTA7 is highly active under drought stress.

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.

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 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.