利用调控网络鉴定模型微藻莱茵衣藻控制脂质代谢和碳浓缩机制的转录枢纽:莱茵衣藻中控制脂质和碳浓缩代谢途径的调控网络枢纽

Rahila Sardar, K. Shaikh, P. P. Jutur
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引用次数: 1

摘要

莱茵衣藻(Chlamydomonas reinhardtii)是研究最广泛的真核模式微藻,具有生物质生产、光合作用、碳浓缩机制(CCMs)、碳水化合物代谢(CM)、脂质代谢(LM)和对营养胁迫的反应等必要的生物学途径,具有公开的微调生理数据和基因组序列。在氮(N)剥夺过程中,C. reinhardtii积累油(triacylglycerols, TAG)作为储存储备,对整个全球调控网络的研究仍不清楚。最近的研究表明,他们已经鉴定和表征了编码转录因子(TFs)和转录调节因子(TRs)的整套基因,这些基因在不同的应激反应下相对于其他基因控制脂质代谢,使用组合组学分析,但是评估正常条件下涉及land CCM的常见TFs和TRs对于理解调控网络至关重要,这可能导致识别控制这些的几个调控枢纽基本的细胞过程。我们的研究将侧重于从公共可用数据库(如PlnTFDB, STRING)中重建监管网络,并阐明这两种机制所必需的常见tf和tr。我们已经发现了新的TFs和TRs,如SET、PHD、FHA、Myb、Myb相关和hmg,它们在染色质和/或转录的控制、赖氨酸残基的甲基化、DNA修复、信号转导等不同功能中发挥重要作用。此外,我们的研究结果表明,这些TFs和TRs参与了模型微藻的光感受器样活动,与不同基因的相互作用程度最大,因此在这两种机制中都具有相关的生理重要性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Identification of transcription hubs that control lipid metabolism and carbon concentrating mechanism in model microalgae chlamydomonas reinhardtii using regulatory networks: Regulatory networks hubs in C. reinhardtii that control lipid and carbon concentrating metabolic pathways
Chlamydomonas reinhardtii is the most extensively studied eukaryotic model microalgae having essential biological pathways such as biomass production, photosynthesis, carbon concentrating mechanisms (CCMs), carbohydrate metabolism (CM), lipid metabolism (LM), and response towards nutritional stresses, with fine-tuned physiological data and genome sequence available publicly. During nitrogen (N) deprivation, C. reinhardtii accumulates oil (triacylglycerols, TAG) as storage reserves and studies to understand the entire global regulatory network is still not clear. Recent studies showed that they have identified and characterized entire set of genes encoding transcription factors (TFs) and transcriptional regulators (TRs)that control lipid metabolism relative to other genes under different stress responses using combined omics analysis but evaluation of common TFs and TRs under normal conditions involving LMand CCM in combination is essential for understanding regulatory network that may lead to identification of several regulatory hubs that controls these essential cellular processes. Our study will focus on reconstruction of a regulatory network from publicly available databases such as PlnTFDB, STRING and elucidate common TFs and TRs essential for both these mechanisms. We have identified new TFs and TRs such as, SET, PHD, FHA, Myb, Myb-related, and HMGthat play an important role in different functions such as control of chromatin and/or transcription, methylation of lysine residues, DNA repair, signal transduction etc. Also, our findings demonstrate that these TFs and TRs are involved in photoreceptor-like activities in the model microalga, which has the maximum degree of interactions with different genes and thus have relevant physiological importance in both these mechanisms.
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