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化学化合物的 X 射线晶体学。

X-ray crystallography of chemical compounds.

机构信息

Naval Research Laboratory, Code 6030, 4555 Overlook Ave., Washington, DC 20375, United States.

出版信息

Life Sci. 2010 Apr 10;86(15-16):585-9. doi: 10.1016/j.lfs.2009.02.028. Epub 2009 Mar 18.

Abstract

AIMS

Accurate knowledge of molecular structure is a prerequisite for rational drug design. This review examines the role of X-ray crystallography in providing the required structural information and advances in the field of X-ray crystallography that enhance or expand its role.

MAIN METHODS

X-ray crystallography of new drugs candidates and intermediates can provide valuable information of new syntheses and parameters for quantitative structure activity relationships (QSAR).

KEY FINDINGS

Crystallographic studies play a vital role in many disciplines including materials science, chemistry, pharmacology, and molecular biology. X-ray crystallography is the most comprehensive technique available to determine molecular structure. A requirement for the high accuracy of crystallographic structures is that a 'good crystal' must be found, and this is often the rate-limiting step. In the past three decades developments in detectors, increases in computer power, and powerful graphics capabilities have contributed to a dramatic increase in the number of materials characterized by X-ray crystallography. More recently the advent of high-throughput crystallization techniques has enhanced our ability to produce that one good crystal required for crystallographic analysis.

SIGNIFICANCE

Continuing advances in all phases of a crystallographic study have expanded the ranges of samples which can be analyzes by X-ray crystallography to include larger molecules, smaller or weakly diffracting crystals, and twinned crystals.

摘要

目的

准确的分子结构知识是合理药物设计的前提。本文综述了 X 射线晶体学在提供所需结构信息方面的作用,以及在增强或扩展其作用方面的晶体学进展。

方法

新药物候选物和中间体的 X 射线晶体学可以为新合成物提供有价值的信息,并为定量构效关系(QSAR)提供参数。

主要发现

晶体学研究在材料科学、化学、药理学和分子生物学等多个学科中都起着至关重要的作用。X 射线晶体学是确定分子结构最全面的技术。晶体学结构高精度的要求是必须找到“好晶体”,而这往往是限速步骤。在过去的三十年中,探测器的发展、计算机能力的提高和强大的图形功能都促成了 X 射线晶体学所描述的材料数量的急剧增加。最近,高通量结晶技术的出现提高了我们生产用于晶体分析的单个优质晶体的能力。

意义

晶体学研究各个阶段的持续进展扩大了可以用 X 射线晶体学分析的样品范围,包括更大的分子、更小或衍射较弱的晶体以及孪晶。

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