Department of Biosciences and Bioengineering, Indian Institute of Technology Bombay, Powai, Mumbai 400076, Maharashtra, India.
Emerg Top Life Sci. 2021 May 14;5(1):127-149. doi: 10.1042/ETLS20200316.
Protein Crystallography or Macromolecular Crystallography (MX) started as a new discipline of science with the pioneering work on the determination of the protein crystal structures by John Kendrew in 1958 and Max Perutz in 1960. The incredible achievements in MX are attributed to the development of advanced tools, methodologies, and automation in every aspect of the structure determination process, which have reduced the time required for solving protein structures from years to a few days, as evident from the tens of thousands of crystal structures of macromolecules available in PDB. The advent of brilliant synchrotron sources, fast detectors, and novel sample delivery methods has shifted the paradigm from static structures to understanding the dynamic picture of macromolecules; further propelled by X-ray Free Electron Lasers (XFELs) that explore the femtosecond regime. The revival of the Laue diffraction has also enabled the understanding of macromolecules through time-resolved crystallography. In this review, we present some of the astonishing method-related and technological advancements that have contributed to the progress of MX. Even with the rapid evolution of several methods for structure determination, the developments in MX will keep this technique relevant and it will continue to play a pivotal role in gaining unprecedented atomic-level details as well as revealing the dynamics of biological macromolecules. With many exciting developments awaiting in the upcoming years, MX has the potential to contribute significantly to the growth of modern biology by unraveling the mechanisms of complex biological processes as well as impacting the area of drug designing.
蛋白质晶体学或大分子晶体学(MX)始于一个新的科学学科,其开创性工作是由 John Kendrew 在 1958 年和 Max Perutz 在 1960 年完成的蛋白质晶体结构测定。MX 的令人难以置信的成就归因于先进工具、方法和自动化在结构测定过程的各个方面的发展,这使得解决蛋白质结构所需的时间从数年缩短到几天,这从 PDB 中可用的数以万计的大分子晶体结构中可见一斑。出色的同步辐射源、快速探测器和新颖的样品输送方法的出现,将范式从静态结构转变为理解大分子的动态图景;进一步由 X 射线自由电子激光器(XFEL)推动,探索飞秒范围。劳埃衍射的复兴也使人们能够通过时间分辨晶体学来理解大分子。在这篇综述中,我们介绍了一些令人惊讶的与方法相关和技术上的进步,这些进步促进了 MX 的发展。即使有几种结构测定方法的快速发展,MX 的发展仍将使这项技术保持相关性,并将继续在获得前所未有的原子级细节以及揭示生物大分子的动力学方面发挥关键作用。随着未来几年许多令人兴奋的发展,MX 有可能通过揭示复杂生物过程的机制以及影响药物设计领域,为现代生物学的发展做出重大贡献。