X-Ray Crystallography of Viruses.

Q1 Biochemistry, Genetics and Molecular Biology Sub-cellular biochemistry Pub Date : 2024-01-01 DOI:10.1007/978-3-031-65187-8_4
Núria Verdaguer, Cristina Ferrer-Orta, Damià Garriga
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Abstract

Since the 1970s and for about 40 years, X-ray crystallography has been by far the most powerful approach for determining virus structures at close to atomic resolutions. Information provided by these studies has deeply and extensively enriched and shaped our vision of the virus world. In turn, the ever-increasing complexity and size of the virus structures being investigated have constituted a major driving force for methodological and conceptual developments in X-ray macromolecular crystallography (MX). Landmarks of the structure determination of viral particles, such as the ones from the first animal viruses or from the first membrane-containing viruses, have often been associated with methodological breakthroughs in X-ray crystallography.In recent years, the advent of new detectors with fast frame rate, high sensitivity, and low-noise background has changed the way MX data is collected, enabling new types of studies at X-ray free-electron laser and synchrotron facilities. In parallel, a very high degree of automation has been established at most MX synchrotron beamlines, allowing the screening of large number of crystals with very high throughputs. This has proved crucial for fragment-based drug design projects, of special relevance for the identification of new antiviral drugs.This change in the usage of X-ray crystallography is also mirrored in the recent advances in cryo-electron microscopy (cryo-EM), which can nowadays produce macromolecule structures at resolutions comparable to those obtained by MX. Since this technique is especially amenable for large protein assemblies, cryo-EM has progressively turned into the favored technique to study the structure of large viral particles at high resolution.In this chapter, we present the common ground of proteins and virus crystallography with an emphasis in the peculiarities of virus-related studies.

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病毒的x射线晶体学。
自20世纪70年代以来,在大约40年的时间里,x射线晶体学一直是迄今为止以接近原子分辨率确定病毒结构的最有效方法。这些研究提供的信息深刻而广泛地丰富和塑造了我们对病毒世界的看法。反过来,正在研究的病毒结构的日益增加的复杂性和大小构成了x射线大分子晶体学(MX)方法和概念发展的主要推动力。病毒颗粒结构测定的里程碑,例如来自第一个动物病毒或来自第一个含膜病毒的颗粒,通常与x射线晶体学方法上的突破有关。近年来,具有快速帧速率、高灵敏度和低噪声背景的新型探测器的出现改变了MX数据的收集方式,使x射线自由电子激光和同步加速器设施的新型研究成为可能。同时,在大多数MX同步加速器束流线上建立了非常高的自动化程度,允许筛选具有非常高通量的大量晶体。事实证明,这对基于片段的药物设计项目至关重要,对鉴定新的抗病毒药物特别重要。x射线晶体学使用的这种变化也反映在低温电子显微镜(cryo-EM)的最新进展中,低温电子显微镜现在可以产生与MX获得的分辨率相当的大分子结构。由于该技术特别适用于大型蛋白质组装,冷冻电镜已逐渐成为高分辨率研究大型病毒颗粒结构的首选技术。在本章中,我们提出了蛋白质和病毒晶体学的共同点,重点是病毒相关研究的特殊性。
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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来源期刊
Sub-cellular biochemistry
Sub-cellular biochemistry Biochemistry, Genetics and Molecular Biology-Biochemistry
CiteScore
5.90
自引率
0.00%
发文量
33
期刊介绍: The book series SUBCELLULAR BIOCHEMISTRY is a renowned and well recognized forum for disseminating advances of emerging topics in Cell Biology and related subjects. All volumes are edited by established scientists and the individual chapters are written by experts on the relevant topic. The individual chapters of each volume are fully citable and indexed in Medline/Pubmed to ensure maximum visibility of the work.
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