Card Paul B, Gardner Kevin H
Department of Biochemistry, University of Texas Southwestern Medical Center, Dallas, Texas 75390, USA.
Methods Enzymol. 2005;394:3-16. doi: 10.1016/S0076-6879(05)94001-9.
The success of genomic sequencing projects in recent years has presented protein scientists with a formidable challenge in characterizing the vast number of gene products that have subsequently been identified. NMR has proven to be a valuable tool in the elucidation of various properties for many of these proteins, allowing versatile studies of structure, dynamics, and interactions in the solution state. But the characteristics needed for proteins amenable to this kind of study, such as folding capability, long-term stability, and high solubility, require robust and expeditious methods for the identification and optimization of target protein domains. Here we present a variety of computational and experimental methods developed for these purposes and show that great care must often be taken in the design of constructs intended for NMR-based investigations.
近年来基因组测序项目的成功给蛋白质科学家带来了一项艰巨挑战,即如何表征随后鉴定出的大量基因产物。事实证明,核磁共振(NMR)是阐明许多此类蛋白质各种特性的宝贵工具,可对溶液状态下的结构、动力学和相互作用进行多方面研究。但是,适用于这类研究的蛋白质所需的特性,如折叠能力、长期稳定性和高溶解度,需要有强大而快速的方法来鉴定和优化目标蛋白结构域。在此,我们展示了为此目的开发的各种计算和实验方法,并表明在设计用于基于核磁共振的研究的构建体时,通常必须格外小心。