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  1. Energy sensing OsSnRK1b and its regulator OsCTK1 promote chilling-induced stomatal closure and chilling tolerance in rice
  2. Evolutionarily conserved BON1 regulates the basal cytosolic Ca 2+ level by calmodulin-independent activation of Ca 2+ pumps in Arabidopsis
  3. Ethylene antagonizes ABA and inhibits stomatal closure and chilling tolerance in rice
  4. Tolerance to multiple abiotic stresses is mediated by interacting CNGC proteins that regulate Ca2+ influx and stomatal movement in rice
  5. Chromatin accessibility mediated by CHROMATIN REMODELING 11 promotes chilling tolerance in rice
  6. Guard Cell Activity of PIF4 Represses Disease Resistance in Arabidopsis
  7. A major gene for chilling tolerance variation in Indica rice codes for a kinase OsCTK1 that phosphorylates multiple substrates under cold
  8. GhCPK28 negatively regulates the immune response by phosphorylating GhTIFY3b
  9. Grapevine Fanleaf Virus RNA1-Encoded Proteins 1A and 1BHel Suppress RNA Silencing
  10. CHROMATIN REMODELING 11-dependent nucleosome occupancy affects disease resistance in rice
  11. m6A mRNA modification promotes chilling tolerance and modulates gene translation efficiency in Arabidopsis
  12. Resting cytosol Ca2+ level maintained by Ca2+ pumps affects environmental responses in Arabidopsis
  13. Multiple chromatin‐associated modules regulate expression of an intracellular immune receptor gene in Arabidopsis
  14. The intracellular immune receptor like gene SNC1 is an enhancer of effector-triggered immunity in Arabidopsis
  15. Heterologous expression of the Haynaldia villosa pattern-recognition receptor CERK1-V in wheat increases resistance to three fungal diseases
  16. In situ deletions reveal regulatory components for expression of an intracellular immune receptor gene and its co‐expressed genes in Arabidopsis
  17. Divergent Roles of CNGC2 and CNGC4 in the Regulation of Disease Resistance, Plant Growth and Heat Tolerance in Arabidopsis
  18. Assessment of functional relevance of genes associated with local temperature variables in Arabidopsis thaliana
  19. AIG2A and AIG2B limit the activation of salicylic acid-regulated defenses by tryptophan-derived secondary metabolism in Arabidopsis
  20. Sustaining plant immunity in rising temperature
  21. In situ deletions reveal regulatory components for expression of an intracellular immune receptor gene and its co‐expressed genes in Arabidopsis
  22. Reduction of the canonical function of a glycolytic enzyme enolase triggers immune responses that further affect metabolism and growth in Arabidopsis
  23. Tissue-level transcriptomic responses to local and distal chilling reveal potential chilling survival mechanisms in maize
  24. HsfA1d promotes hypocotyl elongation under chilling via enhancing expression of ribosomal protein genes in Arabidopsis
  25. Arabidopsis immune-associated nucleotide-binding genes repress heat tolerance at the reproductive stage by inhibiting the unfolded protein response and promoting cell death
  26. Polymorphisms in cis ‐elements confer SAUR26 gene expression difference for thermo‐response natural variation in Arabidopsis
  27. HOS15 and HDA9 negatively regulate immunity through histone deacetylation of intracellular immune receptor NLR genes in Arabidopsis
  28. Nuclear Pore Complex Components Have Temperature‐Influenced Roles in Plant Growth and Immunity
  29. Low Temperature Enhances Plant Immunity via Salicylic Acid Pathway Genes That Are Repressed by Ethylene
  30. Cell autonomous and non-autonomous functions of plant intracellular immune receptors in stomatal defense and apoplastic defense
  31. Natural variations of growth thermo‐responsiveness determined by SAUR 26/27/28 proteins in Arabidopsis thaliana
  32. EGR 2 phosphatase regulates OST 1 kinase activity and freezing tolerance in Arabidopsis
  33. Genotyping-by-sequencing of Brassica oleracea vegetables reveals unique phylogenetic patterns, population structure and domestication footprints
  34. Overlapping and differential roles of plasma membrane calcium ATPases in Arabidopsis growth and environmental responses
  35. Natural variation reveals that OsSAP16 controls low-temperature germination in rice