Protein sample preparation for solid-state NMR investigations

IF 7.3 2区 化学 Q2 CHEMISTRY, PHYSICAL
Denis Lacabanne , Marie-Laure Fogeron , Thomas Wiegand , Riccardo Cadalbert , Beat H. Meier , Anja Böckmann
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引用次数: 18

Abstract

Preparation of a protein sample for solid-state NMR is in many aspects similar to solution-state NMR approaches, mainly with respect to the need for stable isotope labeling. But the possibility of using solid-state NMR to investigate membrane proteins in (native) lipids adds the important requirement of adapted membrane-reconstitution schemes. Also, dynamic nuclear polarization and paramagnetic NMR in solids need specific schemes using metal ions and radicals. Sample sedimentation has enabled structural investigations of objects inaccessible to other structural techniques, but rotor filling using sedimentation has become increasingly complex with smaller and smaller rotors, as needed for higher and higher magic-angle spinning (MAS) frequencies. Furthermore, solid-state NMR can investigate very large proteins and their complexes without the concomitant increase in line widths, motivating the use of selective labeling and unlabeling strategies, as well as segmental labeling, to decongest spectra. The possibility of investigating sub-milligram amounts of protein today using advanced fast MAS techniques enables alternative protein synthesis schemes such as cell-free expression. Here we review these specific aspects of solid-state NMR sample preparation.

Abstract Image

固体核磁共振研究的蛋白质样品制备
制备用于固体核磁共振的蛋白质样品在许多方面与溶液态核磁共振方法相似,主要是关于稳定同位素标记的需要。但是,使用固态核磁共振来研究(天然)脂质中的膜蛋白的可能性增加了适应性膜重构方案的重要要求。此外,固体中的动态核极化和顺磁核磁共振需要使用金属离子和自由基的特定方案。样品沉降使其他结构技术无法对物体进行结构研究成为可能,但由于需要越来越高的魔角旋转(MAS)频率,使用沉降的转子填充变得越来越复杂,转子越来越小。此外,固态核磁共振可以研究非常大的蛋白质及其复合物,而不会伴随线宽的增加,这促使使用选择性标记和取消标记策略,以及片段标记,以减少光谱的拥挤。使用先进的快速MAS技术研究亚毫克量蛋白质的可能性,使替代蛋白质合成方案(如无细胞表达)成为可能。在这里,我们回顾固态核磁共振样品制备的这些具体方面。
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来源期刊
CiteScore
14.30
自引率
8.20%
发文量
12
审稿时长
62 days
期刊介绍: Progress in Nuclear Magnetic Resonance Spectroscopy publishes review papers describing research related to the theory and application of NMR spectroscopy. This technique is widely applied in chemistry, physics, biochemistry and materials science, and also in many areas of biology and medicine. The journal publishes review articles covering applications in all of these and in related subjects, as well as in-depth treatments of the fundamental theory of and instrumental developments in NMR spectroscopy.
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