stress-tolerance
Stress-tolerance is the physiological capacity of plants to withstand and recover from adverse environmental conditions such as drought, extreme temperatures, soil salinity, and pests. This trait is crucial for plant science research because it directly influences crop survival, productivity, and agricultural sustainability, particularly as climate change intensifies environmental pressures. Studying the genetic and molecular mechanisms underlying stress-tolerance enables the development of more resilient crop varieties that maintain yields under challenging growing conditions.
open_in_new WikipediaClimate change and crop resilience: harnessing metabolomics for pre...
The tomatoes, wheat, and corn your food comes from are being pushed toward their stress limits by...
The SDR1-OsDSK2a-EUI1 module orchestrates plant height and multi-st...
The rice in your next meal could soon come from shorter, sturdier plants that produce more grain ...
Spermidine improves plant growth and reduces dinotefuran accumulati...
It points toward a practical, natural way to grow safer strawberries with lower pesticide residue...
Transcriptomic and phosphoproteomic analyses of maize cold-drought ...
Early spring cold snaps paired with dry conditions are a leading cause of corn crop losses, and u...
Plant Flavonoids: Biosynthesis, Regulation, and Roles in Biotic and...
Every tomato, strawberry, and cup of green tea owes its stress-fighting chemistry to the same fla...
Phenolamides: metabolic architects of plant adaptation.
Understanding how plants naturally defend themselves could lead to new, eco-friendly alternatives...
Phytochrome-interacting factors (PIFs): Integrating phytohormone si...
Same molecular switches that tell a tomato when to ripen, a seedling when to reach toward light, ...
Leaf Position-Specific Photosynthetic and Metabolic Adaptations Und...
As soil salinity and alkalinity expand due to irrigation and climate change, understanding how cr...
Seed Potato Bacteria Transfer Across Generations Within the Tuber Flesh.
Potatoes you plant in your garden carry an invisible legacy of helpful bacteria from their parent...
Integrated physiological and transcriptomic analysis reveals key ge...
Understanding how dandelions shrug off waterlogged soil after heavy rain could help breeders deve...
Brassinosteroid-mediated stress adaptation and signaling networks i...
The kale and canola on grocery shelves could become more reliably available even as extreme weath...
A comparative framework for trichome and trichome-derived epidermal...
Salt-tolerant wild plants have tiny surface structures that actively filter salt out of their tis...
Functions and interactions of important sulfur-containing metabolit...
The broccoli and kale on your plate owe their cancer-fighting compounds and their ability to surv...
Overexpression of DWARF14-LIKE2 in Arabidopsis thaliana alters mult...
Understanding how a single plant gene can boost drought and salt tolerance could help scientists ...
Autophagy and stress tolerance in plants: the central role of ATG18...
Understanding how plants cope with stress at the cellular level could lead to hardier crops and g...
Evolutionary and Structural Insights into Proline Metabolism Genes ...
Mangoes grown in coastal regions or on farms irrigated with brackish water are increasingly threa...
Abiotic stress-responsive transcription factor derived-SSR markers ...
Jute bags, rope, and burlap in your home come from a crop that's increasingly threatened by flood...
Suppression of Hsp90 expression in
Same class of opportunistic pathogens studied here can devastate weakened or stressed plants, and...
