生物
拟南芥
基因
基因复制
基因家族
基因组
遗传学
拟南芥
节段重复
串联外显子复制
系统发育树
适应(眼睛)
突变体
神经科学
作者
Song Yu,Yuxuan Wang,Weike Ren,Yisheng Fang,Leili Wang,Yifei Zhang,Chengyang Song,Xiao Luo
标识
DOI:10.3389/fpls.2025.1536866
摘要
Background Frigida ( FRI ) genes are crucial for regulating flowering time in plants. While the biological importance of the Frigida-like ( FRL ) gene family has been recognized in Arabidopsis , a systematic analysis of these genes in soybean is lacking. Characterizing FRL genes in soybean will help uncover their roles in flowering regulation, offering valuable insights for improving soybean adaptation. Results In this study, we identified 16 Frigida genes in soybean, naming them based on their relationship to the FRL genes in Arabidopsis thaliana . These genes are unevenly distributed across thirteen chromosomes. Phylogenetic analysis categorizes Frigida-like proteins from Arabidopsis , soybean, and rice into four distinct subfamilies (I–IV). Our findings indicate that eight GmFRLs arose from whole-genome duplication (WGD) events, alongside two tandem duplication events. Gene structure analysis confirmed that all GmFRL members contain Frigida domains. Additionally, promoter analysis revealed numerous cis-acting elements related to photoperiodic response, suggesting their significant role in soybean’s light response mechanisms. RNA-seq data demonstrated variable expression levels of GmFRL genes across tissues, including flower, leaf, pod, and seed, and other tissues, while subcellular localization and qPCR analyses further support their vital role in light responsiveness in soybean. Conclusion In summary, our comprehensive analysis offers valuable insights into the evolution and potential functions of GmFRL genes, emphasizing their significance in photoperiodic responses and establishing a foundation for further research on the GmFRL family.
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