Huang Danyuan, Chen Shuo, Xiong Ding, Wang Han, Zhu Li, Wei Yuanyuan, Li Yuyu, Zou Shujuan
Aging Dis. 2023 Oct 1;14(5):1511-1532. doi: 10.14336/AD.2023.0201.
Cells are constantly exposed to various mechanical environments; therefore, it is important that they are able to sense and adapt to changes. It is known that the cytoskeleton plays a critical role in mediating and generating extra- and intracellular forces and that mitochondrial dynamics are crucial for maintaining energy homeostasis. Nevertheless, the mechanisms by which cells integrate mechanosensing, mechanotransduction, and metabolic reprogramming remain poorly understood. In this review, we first discuss the interaction between mitochondrial dynamics and cytoskeletal components, followed by the annotation of membranous organelles intimately related to mitochondrial dynamic events. Finally, we discuss the evidence supporting the participation of mitochondria in mechanotransduction and corresponding alterations in cellular energy conditions. Notable advances in bioenergetics and biomechanics suggest that the mechanotransduction system composed of mitochondria, the cytoskeletal system, and membranous organelles is regulated through mitochondrial dynamics, which may be a promising target for further investigation and precision therapies.
细胞不断暴露于各种力学环境中;因此,它们能够感知并适应变化非常重要。已知细胞骨架在介导和产生细胞外和细胞内力方面起关键作用,并且线粒体动力学对于维持能量稳态至关重要。然而,细胞整合机械传感、机械转导和代谢重编程的机制仍知之甚少。在本综述中,我们首先讨论线粒体动力学与细胞骨架成分之间的相互作用,接着阐述与线粒体动态事件密切相关的膜性细胞器。最后,我们讨论支持线粒体参与机械转导以及细胞能量状态相应改变的证据。生物能量学和生物力学的显著进展表明,由线粒体、细胞骨架系统和膜性细胞器组成的机械转导系统通过线粒体动力学进行调节,这可能是进一步研究和精准治疗的一个有前景的靶点。