AI Networking Cookbook: Practical recipes for AI-assisted network automation and development
TL;DR
It is demonstrated that TaDAO plays a critical role in cold tolerance by enhancing antioxidant capacity and osmotic adjustment, providing a potential target for improving cold tolerance in wheat.
A genome-wide identification of the wheat AT gene family is performed and a novel TaOBF1B-TaNAAT1 regulatory module associated with salt tolerance is identified, potentially involving metabolic adjustments that await further biochemical characterization.
The findings indicate that the phenylpropanoid biosynthesis pathway plays a significant role in the cold tolerance of wheat, and together with the jasmonic acid signaling pathway, it forms a crucial regulatory network.
Findings demonstrate that OsDIAT enhances LT tolerance by maintaining BCAA homeostasis and supporting associated JA-Ile responses, and provide a useful genetic target and molecular marker for breeding cold-tolerant indica rice.
This study systematically investigates the regulatory effect of exogenous nicotinamide on soybean saline–alkaline tolerance and identifies its candidate genes and putative mechanisms under salt-stressed conditions.
It is found that MsGLK1 responds to alkali and salt–alkali mixed stresses in alfalfa and detailed functional analysis of GLK1 in the model plants Arabidopsis and Medicago truncatula showed that GLK1 plays an important role in regulating tolerance to alkali and salt–alkali mixed stress.
P phenotypic, physiological, and transcriptomic analyses were integrated to elucidate the drought adaptation mechanisms of a gamma-ray-induced mutant wheat line, PL6, alongside its wild-type parent, PL1, demonstrating an effective analytical framework for selection of high-confidence transcripts.
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