蛋白质稳态
生物
线粒体
压力源
细胞应激反应
细胞生物学
细胞适应
适应(眼睛)
自噬
综合应力响应
适应性反应
未折叠蛋白反应
模式生物
神经科学
战斗或逃跑反应
计算生物学
细胞
生物信息学
机制(生物学)
外温
蛋白质毒性
表型
细胞模型
电池类型
翻译(生物学)
作者
Amanda L. Gunawan,Irene Liparulo,Andreas Stahl
出处
期刊:The EMBO Journal
[Springer Nature]
日期:2025-09-08
卷期号:44 (20): 5640-5661
被引量:16
标识
DOI:10.1038/s44318-025-00549-3
摘要
Abstract A variety of stressors, including environmental insults, pathological conditions, and transition states, constantly challenge cells that, in turn, activate adaptive responses to maintain homeostasis. Mitochondria have pivotal roles in orchestrating these responses that influence not only cellular energy production but also broader physiological processes. Mitochondria contribute to stress adaptation through mechanisms including induction of the mitochondrial unfolded protein response (UPR mt ) and the integrated stress response (ISR). These responses are essential for managing mitochondrial proteostasis and restoring cellular function, with each being tailored to specific stressors and cellular milieus. While excessive stress can lead to maladaptive responses, mitohormesis refers to the beneficial effects of low-level mitochondrial stress. Initially studied in invertebrates and cell cultures, recent research has expanded to mammalian models of mitohormesis. In this literature review, we describe the current landscape of mammalian mitohormesis research and identify mechanistic patterns that result in local, systemic, or interorgan mitohormesis. These investigations reveal the potential for targeting mitohormesis for therapeutic benefit and can transform the treatment of diseases commonly associated with mitochondrial stress in humans.
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