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In silico insights on diverse interacting partners and phosphorylation sites of respiratory burst oxidase homolog (Rbohs) gene families from Arabidopsis and rice

机译:在计算机上洞悉拟南芥和水稻中呼吸猝发氧化酶同源基因(Rbohs)基因家族的各种相互作用伙伴和磷酸化位点

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NADPH oxidase (Nox) is a critical enzyme involved in the generation of apoplastic superoxide (O2 ?), a type of reactive oxygen species (ROS) and hence regulate a wide range of biological functions in many organisms. Plant Noxes are the homologs of the catalytic subunit from mammalian NADPH oxidases and are known as respiratory burst oxidase homologs (Rbohs). Previous studies have highlighted their versatile roles in tackling different kind of stresses and in plant growth and development. In the current study, potential interacting partners and phosphorylation sites were predicted for Rboh proteins from two model species (10 Rbohs from Arabidopsis thaliana and 9 from Oryza sativa japonica). The present work is the first step towards in silico prediction of interacting partners and phosphorylation sites for Rboh proteins from two plant species. In this work, an extensive range of potential partners (unique and common), leading to diverse functions were revealed from interaction networks and gene ontology classifications, where majority of AtRbohs and OsRbohs play role in stress-related activities, followed by cellular development. Further, 68 and 38 potential phosphorylation sites were identified in AtRbohs and OsRbohs, respectively. Their distribution, location and kinase specificities were also predicted and correlated with experimental data as well as verified with the other EF-hand containing proteins within both genomes. Analysis of regulatory mechanisms including interaction with diverse partners and post-translational modifications like phosphorylation have provided insights regarding functional multiplicity of Rbohs. The bioinformatics-based workflow in the current study can be used to get insights for interacting partners and phosphorylation sites from Rbohs of other plant species.
机译:NADPH氧化酶(Nox)是一种重要的酶,它涉及质外生超氧化物(O2α)(一种活性氧(ROS))的生成,因此可调节许多生物体的多种生物学功能。植物Noxes是来自哺乳动物NADPH氧化酶的催化亚基的同源物,被称为呼吸爆发氧化酶同源物(Rbohs)。先前的研究强调了它们在应对不同类型的胁迫以及植物生长和发育中的多种作用。在当前的研究中,预测了来自两个模型物种的Rboh蛋白的潜在相互作用伙伴和磷酸化位点(来自拟南芥的10个Rbohs和来自水稻的9个Rbohs)。目前的工作是迈向计算机预测两个植物物种的Rboh蛋白相互作用伙伴和磷酸化位点的第一步。在这项工作中,相互作用网络和基因本体分类揭示了导致多种功能的广泛潜在伙伴(独特的和共同的),其中大多数AtRbohs和OsRbohs在与压力相关的活动中起作用,随后是细胞发育。此外,在AtRbohs和OsRbohs中分别确定了68和38个潜在的磷酸化位点。还预测了它们的分布,位置和激酶特异性,并将其与实验数据相关联,并用两个基因组中的其他EF手蛋白进行了验证。分析调节机制,包括与不同伙伴的相互作用以及翻译后修饰(如磷酸化),已为Rbohs的功能多样性提供了见解。当前研究中基于生物信息学的工作流程可用于深入了解其他植物物种的Rboh的相互作用伙伴和磷酸化位点。

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