Scientists from Saint Louis University, the USDA-ARS and the Chinese Academy of Sciences collaborated to develop a comprehensive transcriptomic atlas for sorghum, identifying housekeeping and tissue-specific genes and constructing co-expression networks to elucidate gene regulatory mechanisms and pathways, particularly in starch synthesis.
Jia et al. discuss the molecular mechanisms involving the YSL transporter gene SbYS1 and its upstream transcription factor SbWRKY72 in cadmium tolerance and accumulation in sweet sorghum.
This study elucidates the molecular function of the sorghum bHLH transcription factor SbMYC2 in enhancing drought tolerance through JA signaling, providing valuable insights for the development of drought-tolerant cereal crops.
This research identifies novel recessive alleles within the Tannin1 and Tannin2 genes in sorghum, offering insights into tannin regulation and providing practical tools for breeding programs aiming to modulate tannin content.
Researchers identified novel quantitative trait nucleotides (QTNs) associated with root system architecture (RSA) traits in Ethiopian sorghum accessions, offering insights into enhancing sorghum’s drought tolerance through genetic improvement of its root development.
Researchers investigated the genetic basis of sorghum plant color, revealing complex interactions between multiple loci and candidate genes associated with phenotypic traits and fungal resistance.
Fu et al. utilize laser capture microdissection to dissect and analyze transcriptomes from distinct cell types in bioenergy sorghum stems, revealing intricate gene regulatory networks and molecular mechanisms governing stem development and secondary cell wall formation.
A comprehensive analysis identified 112 Sorghum NAC genes, characterized their phylogenetic distribution and structural diversity, and uncovered nine greenbug-inducible SbNAC genes, shedding light on their potential roles in sorghum defense against aphids.
