TL;DR
Abiotic stresses are among the most important factors limiting plant growth and production worldwide, and advances in genomics, proteomics are helping to address this problem.
Global climate change threatens to lessen future crop yields, making the molecular decoding of plant abiotic stress tolerance fundamental for sustainable agriculture [...].
WRKY transcription factors regulate plant responses to abiotic and biotic stresses. We reviewed studies of eight well-characterized Arabidopsis WRKY genes and their orthologs in Chinese cabbage, maize, rice, and tomato to assess conservation of stress-response functions. Many WRKY genes showed roles in both stress cate...
It is shown that small metabolites are increasingly recognized as spatially and temporally regulated signals that coordinate plant development and adaptation and could reveal new strategies to improve crop resilience, productivity, and sustainability under changing environmental conditions.
osmotic adjustment, stress signaling, phytohormone regulation, gene expression, and metabolism. Together, these processes may contribute to enhanced plant resilience to biotic and abiotic stresses, improved nutrient-use ef fi ciency, and more sustainable agricultural systems. The lower panel schematically summarizes the...
The integration of analyses based on gene networks, biological pathways, and molecular responses can help identify candidate genes, key metabolic pathways, and molecular networks related to stress tolerance, paving the way for the development of genetic engineering strategies and breeding resistant plants.
This study reveals GmCCD4 coordinates branch development and stress responses through ABA metabolism and signalling in soybean, and natural variants of GmCCD4 provide promising targets for improving soybean architecture and resilience.
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