Protein dynamics: The future is bright and complicated!

Pub Date : 2023-02-27 eCollection Date: 2023-01-01 DOI:10.1063/4.0000179
Kwangho Nam, Magnus Wolf-Watz
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引用次数: 0

Abstract

Biological life depends on motion, and this manifests itself in proteins that display motion over a formidable range of time scales spanning from femtoseconds vibrations of atoms at enzymatic transition states, all the way to slow domain motions occurring on micro to milliseconds. An outstanding challenge in contemporary biophysics and structural biology is a quantitative understanding of the linkages among protein structure, dynamics, and function. These linkages are becoming increasingly explorable due to conceptual and methodological advances. In this Perspective article, we will point toward future directions of the field of protein dynamics with an emphasis on enzymes. Research questions in the field are becoming increasingly complex such as the mechanistic understanding of high-order interaction networks in allosteric signal propagation through a protein matrix, or the connection between local and collective motions. In analogy to the solution to the "protein folding problem," we argue that the way forward to understanding these and other important questions lies in the successful integration of experiment and computation, while utilizing the present rapid expansion of sequence and structure space. Looking forward, the future is bright, and we are in a period where we are on the doorstep to, at least in part, comprehend the importance of dynamics for biological function.

蛋白质动力学:未来是光明而复杂的!
生物生命依赖于运动,这表现在蛋白质中,这些蛋白质在一系列强大的时间尺度上表现出运动,从原子在酶促过渡状态下的飞秒振动,一直到发生在微米到毫秒之间的慢域运动。当代生物物理学和结构生物学的一个突出挑战是定量理解蛋白质结构、动力学和功能之间的联系。由于概念和方法的进步,这些联系正变得越来越可探索。在这篇透视文章中,我们将指出蛋白质动力学领域的未来方向,重点是酶。该领域的研究问题越来越复杂,例如对变构信号通过蛋白质基质传播的高阶相互作用网络的机制理解,或者局部运动和集体运动之间的联系。与“蛋白质折叠问题”的解决方案类似,我们认为,理解这些和其他重要问题的方法在于成功地整合实验和计算,同时利用目前序列和结构空间的快速扩展。展望未来,未来是光明的,我们正处于这样一个时期,至少在一定程度上,我们即将理解动力学对生物功能的重要性。
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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