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保守的线粒体 CLPP 的丧失及其功能丧失导致植物和其他生物体出现不同的表型。

Loss of conserved mitochondrial CLPP and its functions lead to different phenotypes in plants and other organisms.

机构信息

ARC Centre of Excellence in Plant Energy Biology, School of Molecular Sciences, The University of Western Australia , Perth, Australia.

出版信息

Plant Signal Behav. 2020 Dec 1;15(12):1831789. doi: 10.1080/15592324.2020.1831789. Epub 2020 Oct 19.

Abstract

Caseinolytic protease (CLPP) is an energy-dependent serine-type protease that plays a role in protein quality control. The gene is highly conserved across kingdoms and the protein is present in both bacteria and eukaryote organelles like mitochondria across a wide phylogenetic range. This pedigree has all the hallmarks of CLPP being an essential gene. However, in plants, disruption of mitochondrial CLPP has no impact on its growth, reminiscent of its nonessential role in some model fungi. Deletion of mitochondrial improves health and increased life span in the filamentous fungus, , while loss of human mitochondrial CLPP leads to infertility and hearing loss. Recently it was revealed that both plant and human CLPP share a similar role in maintenance of the N-module of respiratory complex I. In addition, plant mitochondrial CLPP also coordinates the homeostasis of other mitochondrial protein complexes encoded by genes across mitochondrial and nuclear genomes. Understanding the contextual role of mitochondrial CLPP across kingdoms may help to understand these diverse sets of phenotypes and the widespread conservation of genes.

摘要

蛋白酶体(CLPP)是一种依赖能量的丝氨酸型蛋白酶,在蛋白质质量控制中发挥作用。该基因在各个生物界都高度保守,并且该蛋白存在于细菌和真核细胞器中,如线粒体,跨越广泛的系统发育范围。这种谱系都表明 CLPP 是一种必需基因。然而,在植物中,破坏线粒体 CLPP 对其生长没有影响,这让人联想到它在一些模式真菌中不重要的作用。丝状真菌中删除线粒体 可改善健康并延长寿命,而人类线粒体 CLPP 的缺失会导致不育和听力损失。最近发现,植物和人类的 CLPP 在维持呼吸复合物 I 的 N 模块方面具有相似的作用。此外,植物线粒体 CLPP 还协调由线粒体和核基因组编码的其他线粒体蛋白复合物的动态平衡。了解跨生物界的线粒体 CLPP 的上下文作用可能有助于理解这些不同的表型和广泛保守的 基因。

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