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Regulation of mitochondrial dynamics: convergences and divergences between yeast and vertebrates

机译:线粒体动力学的调节:酵母和脊椎动物之间的趋同和分歧

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摘要

In eukaryotic cells, the shape of mitochondria can be tuned to various physiological conditions by a balance of fusion and fission processes termed mitochondrial dynamics. Mitochondrial dynamics controls not only the morphology but also the function of mitochondria, and therefore is crucial in many aspects of a cell’s life. Consequently, dysfunction of mitochondrial dynamics has been implicated in a variety of human diseases including cancer. Several proteins important for mitochondrial fusion and fission have been discovered over the past decade. However, there is emerging evidence that there are as yet unidentified proteins important for these processes and that the fusion/fission machinery is not completely conserved between yeast and vertebrates. The recent characterization of several mammalian proteins important for the process that were not conserved in yeast, may indicate that the molecular mechanisms regulating and controlling the morphology and function of mitochondria are more elaborate and complex in vertebrates. This difference could possibly be a consequence of different needs in the different cell types of multicellular organisms. Here, we review recent advances in the field of mitochondrial dynamics. We highlight and discuss the mechanisms regulating recruitment of cytosolic Drp1 to the mitochondrial outer membrane by Fis1, Mff, and MIEF1 in mammals and the divergences in regulation of mitochondrial dynamics between yeast and vertebrates.
机译:在真核细胞中,线粒体的形状可以通过融合和裂变过程(称为线粒体动力学)的平衡而调节到各种生理条件。线粒体动力学不仅控制形态,还控制线粒体的功能,因此在细胞生命的许多方面至关重要。因此,线粒体动力学的功能障碍已经牵涉到包括癌症在内的多种人类疾病中。在过去的十年中,已经发现了几种对于线粒体融合和裂变重要的蛋白质。但是,越来越多的证据表明,对于这些过程而言,尚有一些尚未鉴定的蛋白质,并且在酵母和脊椎动物之间融合/裂变机制尚未完全保守。对酵母中不保守的几种重要的哺乳动物蛋白的最新表征可能表明,调节和控制线粒体的形态和功能的分子机制在脊椎动物中更为复杂和复杂。这种差异可能是多细胞生物的不同细胞类型中不同需求的结果。在这里,我们回顾线粒体动力学领域的最新进展。我们强调并讨论了在哺乳动物中通过Fis1,Mff和MIEF1调节细胞质Drp1募集到线粒体外膜的机制,以及在酵母和脊椎动物之间调节线粒体动力学的差异。

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