Institutional Publications
Permanent URI for this collectionhttps://ndkr-library.nipgr.ac.in/handle/123456789/11
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Item Key determinants of seed size for enhancing genetic gain in legumes(John Wiley & Sons, 2026) Padhy, Asish Kumar; Singh, Ananya; Chaurasia, Shiksha; Parida, Swarup Kumar; Tripathi, Kuldeep; Bhatia, SabhyataLegumes play a pivotal role in human nutrition due to their high nutritional value, especially protein content. Therefore, enhancing the productivity of grain legumes is desirable for ensuring food and nutritional security. Seed size and seed weight are key factors influencing productivity. This article consolidates the substantial amount of research conducted to uncover the molecular signatures associated with seed size into a structured format, providing a one-stop platform of available resources for enhancing genetic gains in legumes. The advent of NGS technologies enabled the decryption of genomes and transcriptomes of important grain legumes. Moreover, molecular signatures such as SSRs, SNPs, transcription factors, methylation patterns and so forth scanned from phenotypically and genotypically well-characterized natural and mapping populations helped identify the QTLs, MTAs and candidate genes associated with seed size. Many of these QTLs and candidate genes have been utilized in marker-assisted breeding for achieving larger seeds and enhanced yield in legumes. Besides, the characterization of legume orthologs of candidate genes from other crops using different omics approaches helped in understanding the regulatory pathways involved in seed size determination in legumes. This review provides a direction for the effective utilization of available resources to enhance legume productivity.Item Emerging roles of melatonin in mitigating salinity stress of legumes(Elsevier B.V., 2023) Chaurasia, Shiksha; Sapna, Sapna; Padhy, Asish Kumar; Bhatia, SabhyataMelatonin (N-acetyl-5‑methoxy tryptamine) is a multi-functional molecule that is distributed in all living organisms and it performs essential roles in environmental stress tolerance. Salt stress enhances the rapid accumulation of melatonin in plants. Melatonin provides resistance to salt stress by manipulating various regulatory mechanisms at the biochemical and molecular levels throughout different plant developmental stages. Conventionally, legumes are consumed along with cereal-based staples to ensure wholesome nutritional intake. After confirming their nutritional and health-promoting effects, recently their demand is constantly increasing. This has guided the researchers to focus on developing legumes to cope with the changing climate scenario. In legumes, melatonin concentration varies from crop to crop under salt stress. This review emphasizes melatonin biosynthesis in plants with a special focus on legumes and their responses to endogenous and exogenous melatonin application. This manuscript also throws light on the physiological, biochemical, and molecular basis of melatonin-mediated salinity stress tolerance in legumes. The future directions for enhancing the salt stress tolerance in legumes are also discussed. As, Melatonin promotes germination potential, seedling biomass, photosynthesis rate, pod number, and yield of legumes under the influence of salinity stress, this review can provide insights for using melatonin to develop salt stress tolerant legumes for sustainable food production.
