Henzler Angela M, Rarey Matthias
Center for Bioinformatics (ZBH), University of Hamburg, Bundesstr. 43, 20146 Hamburg phone/fax: +49(40) 42838-7351/-7352.
Mol Inform. 2010 Mar 15;29(3):164-73. doi: 10.1002/minf.200900078. Epub 2010 Feb 19.
Modern structure-based drug design aims at accounting for the intrinsic flexibility of therapeutic relevant targets. Over the last few years a considerable amount of docking approaches that encounter this challenging problem has emerged. Here we provide the readership with an overview of established methods for fully flexible protein-ligand docking and current developments in the field. All methods are based on one of two fundamental models which describe the dynamic behavior of proteins upon ligand binding. Methods for ensemble docking (ED) model the protein conformational change before the ligand is placed, whereas induced-fit docking (IFD) optimizes the protein structure afterwards. A third category of docking approaches is formed by recent approaches that follow both concepts. This categorization allows to comprehensively discover strengths and weaknesses of the individual processes and to extract information for their applicability in real world docking scenarios.
现代基于结构的药物设计旨在考虑治疗相关靶点的内在灵活性。在过去几年中,出现了大量应对这一具有挑战性问题的对接方法。在此,我们为读者提供已确立的完全灵活的蛋白质-配体对接方法以及该领域当前进展的概述。所有方法均基于描述配体结合时蛋白质动态行为的两种基本模型之一。整体对接(ED)方法在放置配体之前对蛋白质构象变化进行建模,而诱导契合对接(IFD)则在之后优化蛋白质结构。第三类对接方法由遵循这两种概念的最新方法构成。这种分类有助于全面发现各个过程的优缺点,并提取有关它们在实际对接场景中适用性的信息。