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线粒体行为、形态和动物表现。

Mitochondrial behaviour, morphology, and animal performance.

机构信息

Department of Biological Sciences, Auburn University, 101 Rouse Life Sciences Building, Auburn, AL, 36849, U.S.A.

出版信息

Biol Rev Camb Philos Soc. 2020 Jun;95(3):730-737. doi: 10.1111/brv.12584. Epub 2020 Feb 5.

Abstract

We have a limited understanding of the proximate mechanisms that are responsible for the development of variation in animal performance and life-history strategies. Provided that components of an organism's successful life history - for example, mate competition, gestation, lactation, etc. - are energetically demanding, increased energy production within mitochondria is likely the foundation from which organisms are able to perform these tasks. Mitochondrial behaviour (positioning within the cell and communication between mitochondria) and morphology affect variation in energy production at the molecular, cellular, and organismal levels. Therefore, adaptations in mitochondrial behaviour and morphology that favour efficient energy production likely influence variation in animal performance. Previous work has linked greater proportions of inter-mitochondrial junctions and density of the inner mitochondrial membrane, among other traits, with increased energetic demand. Future research should focus on how inter-mitochondrial junctions and morphology of the inner mitochondrial membrane, in particular, influence animal performance in accordance with mitochondrial density, fission, and fusion.

摘要

我们对导致动物表现和生活史策略变化的近因机制知之甚少。如果生物体成功生活史的组成部分——例如配偶竞争、妊娠、哺乳等——需要能量,那么线粒体内能量的产生增加可能是生物体能够完成这些任务的基础。线粒体的行为(在细胞内的位置和线粒体之间的通讯)和形态会影响分子、细胞和生物体水平的能量产生变化。因此,有利于有效能量产生的线粒体行为和形态的适应可能会影响动物的表现。以前的研究将更多的线粒体间连接以及线粒体内膜的密度等特征与能量需求的增加联系起来。未来的研究应该集中在线粒体间连接和线粒体内膜的形态如何根据线粒体密度、裂变和融合来影响动物的表现。

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