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运动训练中的线粒体激素作用。

Mitohormesis in exercise training.

机构信息

Energy Metabolism Laboratory, Swiss Federal Institute of Technology (ETH), 8603 Zurich, Switzerland.

Energy Metabolism Laboratory, Swiss Federal Institute of Technology (ETH), 8603 Zurich, Switzerland.

出版信息

Free Radic Biol Med. 2016 Sep;98:123-130. doi: 10.1016/j.freeradbiomed.2015.11.032. Epub 2015 Nov 30.

Abstract

Hormesis is a process whereby exposure to a low dose of a potentially harmful stressor promotes adaptive changes to the cell that enables it to better tolerate subsequent stress. In recent years this concept has been applied specifically to the mitochondria (mitohormesis), suggesting that in response to a perturbation the mitochondria can initiate and transduce a signal to the nucleus that coordinates a transcriptional response resulting in both mitochondrial and non-mitochondrial adaptations that return and maintain cellular homeostasis. In this review we summarize the evidence that mitohormesis is a significant adaptive-response signaling pathway, and suggest that it plays a role in mediating exercise-induced adaptations. We discuss potential mitochondrial emitters of retrograde signals that may activate known exercise-sensitive transcription factors to modulate transcription responses to exercise, and draw on evidence from mitochondrial dysfunction animal models to support a role for mitohormesis in mitochondrial biogenesis. Studies directly linking mitohormesis to the exercise training response are lacking, however mounting evidence suggests numerous signals are emitted from the mitochondria during exercise and have the potential to induce a nuclear transcription response, with reactive oxygen species (ROS) being the primary candidate.

摘要

应激是一种过程,在此过程中,细胞暴露于低剂量的潜在有害应激源会促进适应性变化,从而使其能够更好地耐受随后的应激。近年来,这一概念已专门应用于线粒体(mitohormesis),表明线粒体可以响应干扰启动并向核传递信号,协调转录反应,从而导致线粒体和非线粒体的适应性变化,使细胞恢复并维持内稳态。在这篇综述中,我们总结了应激是一种重要的适应性反应信号通路的证据,并提出它在介导运动引起的适应性变化中发挥作用。我们讨论了可能激活已知运动敏感转录因子的线粒体逆行信号的潜在发射器,以调节对运动的转录反应,并借鉴线粒体功能障碍动物模型的证据,支持应激在线粒体生物发生中的作用。然而,直接将应激与运动训练反应联系起来的研究还很缺乏,越来越多的证据表明,在运动过程中,线粒体发出多种信号,有可能诱导核转录反应,其中活性氧(ROS)是主要候选者。

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