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Genome-Wide Identification and Expression Protein–Protein Interaction and Evolutionary Analysis of the Seed Plant-Specific BIG GRAIN and BIG GRAIN LIKE Gene Family

机译:种子植物特有的BIG GRAIN和BIG GRAIN LIKE基因家族的全基因组鉴定和表达蛋白-蛋白质相互作用以及进化分析

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摘要

BIG GRAIN1 (BG1) is an auxin-regulated gene which functions in auxin pathway and positively regulates biomass, grain size and yield in rice. However, the evolutionary origin and divergence of these genes are still unknown. In this study, we found that BG genes are probably originated in seed plants. We also identified that seed plants evolved a class of BIG GRAIN LIKE (BGL) genes which share conserved middle and C-terminal motifs with BG. The BG genes were present in all monocot and eudicot species analyzed; however, the BGL genes were absent in few monocot lineages. Both BG and BGL were found to be serine-rich proteins; however, differences in expansion and rates of retention after whole genome duplication events were observed. Promoters of BG and BGL genes were found to be enriched with auxin-responsive elements and the Arabidopsis thaliana BG and BGL genes were found to be auxin-regulated. The auxin-induced expression of AthBG2 was found to be dependent on the conserved ARF17/19 module. Protein-protein interaction analysis identified that AthBG2 interact with regulators of splicing, transcription and chromatin remodeling. Taken together, this study provides interesting insights about BG and BGL genes and incentivizes future work in this gene family which has the potential to be used for crop manipulation.
机译:BIG GRAIN1(BG1)是一种生长素调节基因,在生长素途径中发挥功能,并积极调节水稻的生物量,籽粒大小和产量。但是,这些基因的进化起源和分歧仍然未知。在这项研究中,我们发现BG基因可能起源于种子植物。我们还确定了种子植物进化出了一类大谷物样(BGL)基因,该基因与BG共享保守的中端和C端基序。 BG基因存在于所有分析的单子叶植物和双子叶植物物种中。然而,在少数单子叶植物谱系中不存在BGL基因。发现BG和BGL都是富含丝氨酸的蛋白质。然而,观察到全基因组复制事件后扩增和保留率的差异。发现BG和BGL基因的启动子富含植物生长素应答元件,而拟南芥BG和BGL基因被植物生长素调节。生长素诱导的AthBG2的表达取决于保守的ARF17 / 19模块。蛋白质-蛋白质相互作用分析确定,AthBG2与剪接,转录和染色质重塑的调控因子相互作用。总而言之,这项研究提供了有关BG和 BGL 基因的有趣见解,并激发了该基因家族的潜在工作,该家族有可能用于作物操纵。

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