豇豆NAC转录因子家族的全基因组分析揭示了胁迫与生长调控信号之间的遗传和分子关系

IF 2.2 Q3 GENETICS & HEREDITY
Richa Srivastava, Lingaraj Sahoo
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引用次数: 1

摘要

NAC转录因子作为胁迫和生长响应的关键转录介质,在开发气候智能型脉冲作物方面具有巨大的潜力。尽管它们具有开创性的作用,但它们在许多重要的孤儿豆类(如豇豆)中尚未被探索。最近全面参考基因组的可用性促使我们调查和评估豇豆中显著的NAC家族对可持续作物研究的功能重要性。本研究鉴定了豇豆中130个NAC蛋白,编号VuNAC01-130,并将其划分为8个系统发育类群。27个豇豆特有的成员聚为一个独特的分支,与其他物种没有密切的同源物,暗示新的功能。VuNAC蛋白携带多部核信号和具有保守模式的独特转激活区。18个蛋白与非nac嵌合结构域相关。这些基因拥有独特的启动子结构,包含富含嘧啶的元素。该家族表现出突出的片段和串联染色体重复,导致许多应激反应成员和大的旁系群体。启动子和相互作用组分析显示,通过光、激素和转录因子(NAC/MYB/WRKY/ERF和Dof/TCP)进行多层调控,提示应激和生长调节信号之间存在串扰。此外,TFs还与海藻糖和叶酸合成、碳水化合物运输、脂质信号传导和电子传递等代谢过程有关。相比之下,ATAF-like成员(Ia组)将是最有希望通过转化方法开发具有改善胁迫适应性和农艺性状的气候智能型作物的候选者,因为它们具有可预测的功能多功能性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Genome-wide analysis of cowpea NAC transcription factor family elucidating the genetic & molecular relationships that interface stress and growth regulatory signals

Genome-wide analysis of cowpea NAC transcription factor family elucidating the genetic & molecular relationships that interface stress and growth regulatory signals

Being a key transcriptional mediator of stress and growth responses, NAC transcription factors hold the paramount potential to develop climate-smart pulse crops. Despite their seminal role, they are yet unexplored in many important orphan legumes like cowpea. The recent availability of a comprehensive reference genome motivated us to investigate and assess the functional importance of the remarkable NAC family in cowpea for sustainable crop research. This study identified 130 NAC proteins in cowpea, namely VuNAC01-130, classified into 8 phylogenetic groups. 27 cowpea-specific members were clustered as a distinct clade with no close orthologs from other species, implicating novel functions. VuNAC proteins carried multipartite nuclear signals and unique transactivation regions with conserved patterns. 18 proteins were associated with non-NAC chimeric domains. The genes owned a unique promoter architecture encompassing pyrimidine-rich elements. The family manifested prominent segmental and tandem chromosomal duplication resulting in numerous stress-responsive members and large paralogous groups. The promoter and interactome analysis revealed multi-tier regulation through light, hormone, and transcription factors (NAC/MYB/WRKY/ERF and Dof/TCP), suggesting a cross-talk between stress and growth-regulating signals. Besides, the TFs were associated with metabolic processes such as trehalose and folate synthesis, carbohydrate transport, lipid signaling, and electron transfer. Comparatively, ATAF-like members (Group Ia) would be the most promising candidates to develop climate-smart crops with improved stress adaptation and agronomic traits by translational approach, due to their predicted functional versatility.

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来源期刊
Plant Gene
Plant Gene Agricultural and Biological Sciences-Plant Science
CiteScore
4.50
自引率
0.00%
发文量
42
审稿时长
51 days
期刊介绍: Plant Gene publishes papers that focus on the regulation, expression, function and evolution of genes in plants, algae and other photosynthesizing organisms (e.g., cyanobacteria), and plant-associated microorganisms. Plant Gene strives to be a diverse plant journal and topics in multiple fields will be considered for publication. Although not limited to the following, some general topics include: Gene discovery and characterization, Gene regulation in response to environmental stress (e.g., salinity, drought, etc.), Genetic effects of transposable elements, Genetic control of secondary metabolic pathways and metabolic enzymes. Herbal Medicine - regulation and medicinal properties of plant products, Plant hormonal signaling, Plant evolutionary genetics, molecular evolution, population genetics, and phylogenetics, Profiling of plant gene expression and genetic variation, Plant-microbe interactions (e.g., influence of endophytes on gene expression; horizontal gene transfer studies; etc.), Agricultural genetics - biotechnology and crop improvement.
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