Can repetitive mechanical motion cause structural damage to axons?

Allegra Coppini, Alessandro Falconieri, Oz Mualem, Syeda Rubaiya Nasrin, Marine Roudon, Gadiel Saper, Henry Hess, Akira Kakugo, V. Raffa, Orit Shefi
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Abstract

Biological structures have evolved to very efficiently generate, transmit, and withstand mechanical forces. These biological examples have inspired mechanical engineers for centuries and led to the development of critical insights and concepts. However, progress in mechanical engineering also raises new questions about biological structures. The past decades have seen the increasing study of failure of engineered structures due to repetitive loading, and its origin in processes such as materials fatigue. Repetitive loading is also experienced by some neurons, for example in the peripheral nervous system. This perspective, after briefly introducing the engineering concept of mechanical fatigue, aims to discuss the potential effects based on our knowledge of cellular responses to mechanical stresses. A particular focus of our discussion are the effects of mechanical stress on axons and their cytoskeletal structures. Furthermore, we highlight the difficulty of imaging these structures and the promise of new microscopy techniques. The identification of repair mechanisms and paradigms underlying long-term stability is an exciting and emerging topic in biology as well as a potential source of inspiration for engineers.
重复的机械运动会对轴突造成结构性损伤吗?
生物结构在进化过程中能够非常有效地产生、传递和承受机械力。几个世纪以来,这些生物实例一直激励着机械工程师,并促使他们提出了重要的见解和概念。然而,机械工程的进步也对生物结构提出了新的问题。在过去的几十年中,人们越来越多地研究工程结构因重复加载而失效的原因,以及材料疲劳等过程。一些神经元(例如外周神经系统)也会经历重复加载。本视角简要介绍了机械疲劳的工程概念,旨在根据我们对细胞对机械应力反应的了解,讨论其潜在影响。我们讨论的一个重点是机械应力对轴突及其细胞骨架结构的影响。此外,我们还强调了对这些结构成像的难度以及新显微镜技术的前景。确定长期稳定性的修复机制和范例是生物学中一个令人兴奋的新兴课题,也是工程师的潜在灵感来源。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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