Manoli Irini, Alesci Salvatore, Blackman Marc R, Su Yan A, Rennert Owen M, Chrousos George P
Human Biochemical Genetics Section, MGB, NHGRI, NIH, Bethesda, MD 20892, USA.
Trends Endocrinol Metab. 2007 Jul;18(5):190-8. doi: 10.1016/j.tem.2007.04.004. Epub 2007 May 17.
The exquisitely orchestrated adaptive response to stressors that challenge the homeostasis of the cell and organism involves important changes in mitochondrial function. A complex signaling network enables mitochondria to sense internal milieu or environmental changes and to adjust their bioenergetic, thermogenic, oxidative and/or apoptotic responses accordingly, aiming at re-establishment of homeostasis. Mitochondrial dysfunction is increasingly recognized as a key component in both acute and chronic allostatic states, although the extent of its role in the pathogenesis of such conditions remains controversial. Genetic and environmental factors that determine mitochondrial function might contribute to the significant variation of the stress response. Understanding the often reciprocal interplay between stress mediators and mitochondrial function is likely to help identify potential therapeutic targets for many stress and mitochondria-related pathologies.
对挑战细胞和机体稳态的应激源所做出的精心编排的适应性反应涉及线粒体功能的重要变化。一个复杂的信号网络使线粒体能够感知内部环境或环境变化,并相应地调整其生物能量、产热、氧化和/或凋亡反应,旨在重新建立稳态。线粒体功能障碍越来越被认为是急性和慢性非稳态状态的关键组成部分,尽管其在这些病症发病机制中的作用程度仍存在争议。决定线粒体功能的遗传和环境因素可能导致应激反应的显著差异。了解应激介质与线粒体功能之间通常相互的相互作用,可能有助于确定许多与应激和线粒体相关病症的潜在治疗靶点。