Pearl millet, a resilient C4 crop crucial for food security in arid regions, faces challenges in yield and shelf life due to environmental stresses and rapid flour rancidity, which can potentially be mitigated through genetic engineering targeting phospholipase genes.
Sorghum seed development involves complex molecular processes, including tissue-specific gene expression and metabolite accumulation, which are critical for improving grain quality, yield, and climate resilience.
Researchers from Shijiazhuang, China identified and characterized seven PRE genes in sorghum, highlighting SbPRE4’s role in enhancing aphid resistance through jasmonic acid signaling.
This study identifies and characterizes 32 phospholipase A (PLA) genes in Sorghum bicolor, revealing their diverse roles in plant growth, defense, and stress response, with significant implications for improving sorghum production in semi-arid regions.
This study identified and characterized the COMPASS-like complex in sorghum, revealing unique ASH2 gene duplications and novel transcriptional activation activity in RbBP5, suggesting distinct regulatory mechanisms for gene expression in sorghum compared to other plants.
This study utilized genetic analysis and genome-wide association studies (GWAS) to identify significant marker-trait associations for iron (Fe) and zinc (Zn) concentrations in sorghum, aiming to improve biofortification and enhance the nutritional quality of this staple crop.
Peleke et al. developed interpretable deep learning models to predict gene expression from gene flanking regions in plants, revealing conserved and species-specific regulatory elements and their impacts on genetic variation and phenotype.
