线粒体膜的恢复通过内质网和细胞质的水泡输入进行。线粒体和高尔基体通路的异同

A. Slomiany, B. Slomiany
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引用次数: 3

摘要

线粒体恢复过程由核基因控制,核基因编码内质网和细胞质中合成的蛋白质,并作为细胞器和膜特异性运输囊泡传递。从线粒体内腔(Mitosol)中回收的转运蛋白分析表明,er合成的线粒体特异性转运囊泡由两个载体组成,一个留在线粒体外膜(OMM),另一个将特定的膜段转移到线粒体内膜(IMM)。er组装和IMM承诺的膜段首先整合到OMM中,经过线粒体内脂质修饰,反映在心磷脂(CL)的合成中,并在装载IMM相关的细胞质蛋白的情况下转化为线粒体。然后,包裹cl的囊泡从OMM释放到线粒体,与IMM接触后与膜融合,随后释放胞质货物。er组装的线粒体特异性运输囊泡在胞质磷脂酰甘油(PG)特异性磷脂酶A2 (PLA2)的帮助下与OMM融合,而含有线粒体的cl特异性PLA引导囊泡与IMM融合。所描述的将膜段和细胞质溶胶合成的蛋白质转运到指定的线粒体室的途径维持了OMM、IMM的生长和特性,维持了线粒体内脂质和线粒体中蛋白质修饰的蛋白质传递,并确保了传递到基质的细胞质蛋白质货物的一致性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Mitochondrial Membranes Restitution Proceeds via Vesicular Import from ER and Cytosol. Counterparts’ Resemblances and Variances in Mitochondria and Golgi Pathways
The processes of mitochondrial restitution are controlled by nuclear genes that encode proteins synthesized in ER and cytosol and delivered as organelle- and membrane-specific transport vesicles. The analysis of the transporters recovered from inner mitochondrial space (Mitosol) revealed that the ER-synthesized mitochondria-specific transport vesicles consist of two carriers, one remaining in outer mitochondrial membrane (OMM), and the other that transfers specific membrane segments to the inner mitochondrial membrane (IMM). The ER-assembled and IMM-committed membrane segments, while first integrated into OMM, undergo intra-mitochondrial lipid modification reflected in the synthesis of cardiolipin (CL) and inversion into Mitosol with load of IMM associated cytosolic proteins. Then, the CL-bedecked vesicles are released from OMM to Mitosol and upon contact with IMM fuse with the membrane, and the release of cytosolic cargo ensues. While ER-assembled mitochondria-specific transport vesicles fuse with OMM with the aid of the cytosolic, phosphatidylglycerol (PG)-specific phospholipase A2 (PLA2), the Mitosol-contained CL-specific PLA guides vesicles fusion with IMM. The described path of translocation of the membrane segments and the cytosol synthesized proteins into the designated mitochondrial compartments sustains growth and identity of OMM, IMM, maintains protein delivery for intra-mitochondrial lipid and protein modification in Mitosol, and ensures conformity of the cytosolic proteins cargo delivered to matrix.
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