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内溶酶体蛋白水解作用及其调控

Endolysosomal proteolysis and its regulation.

作者信息

Pillay Ché S, Elliott Edith, Dennison Clive

机构信息

School of Molecular and Cellular Biosciences, University of Natal, Post Bag X01, Scottsville 3209, Pietermaritzburg, South Africa.

出版信息

Biochem J. 2002 May 1;363(Pt 3):417-29. doi: 10.1042/0264-6021:3630417.

DOI:10.1042/0264-6021:3630417
PMID:11964142
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC1222494/
Abstract

The endolysosomal system comprises a unique environment for proteolysis, which is regulated in a manner that apparently does not involve protease inhibitors. The system comprises a series of membrane-bound intracellular compartments, within which endocytosed material and redundant cellular components are hydrolysed. Endocytosed material tends to flow vectorially through the system, proceeding through the early endosome, the endosome carrier vesicle, the late endosome and the lysosome. Phagocytosis and autophagy provide alternative entry points into the system. Late endosomes, lysosome/late endosome hybrid organelles, phagosomes and autophagosomes are the principal sites for proteolysis. In each case, hydrolytic competence is due to components of the endolysosomal system, i.e. proteases, lysosome-associated membrane proteins, H(+)-ATPases and possibly cysteine transporters. The view is emerging that lysosomes are organelles for the storage of hydrolases, perhaps in an inactivated form. Once a substrate has entered a proteolytically competent environment, the rate-limiting proteolytic steps are probably effected by cysteine endoproteinases. As these are affected by pH and possibly redox potential, they may be regulated by the organelle luminal environment. Regulation is probably also affected, among other factors, by organelle fusion reactions, whereby the meeting of enzyme and substrate may be controlled. Such systems would permit simultaneous regulation of a number of unrelated hydrolases.

摘要

内溶酶体系统构成了一个独特的蛋白水解环境,其调节方式显然不涉及蛋白酶抑制剂。该系统由一系列膜结合的细胞内区室组成,内吞物质和多余的细胞成分在这些区室中被水解。内吞物质倾向于通过该系统进行定向流动,依次经过早期内体、内体载体囊泡、晚期内体和溶酶体。吞噬作用和自噬作用为该系统提供了其他进入途径。晚期内体、溶酶体/晚期内体杂交细胞器、吞噬体和自噬体是蛋白水解的主要场所。在每种情况下,水解能力都归因于内溶酶体系统的成分,即蛋白酶、溶酶体相关膜蛋白、H(+)-ATP酶以及可能的半胱氨酸转运体。一种新出现的观点认为,溶酶体是水解酶的储存细胞器,可能以无活性形式存在。一旦底物进入具有蛋白水解能力的环境,限速蛋白水解步骤可能由半胱氨酸内蛋白酶完成。由于这些酶受pH值以及可能的氧化还原电位影响,它们可能受细胞器腔内环境调节。除其他因素外,细胞器融合反应可能也会影响调节,通过这种反应可以控制酶与底物的相遇。这样的系统将允许同时调节多种不相关的水解酶。