Functional Studies of Sodium Channels: From Target to Compound Identification
Q2 Pharmacology, Toxicology and Pharmaceutics
D. Bertrand, B. Biton, T. Licher, J. Chambard, C. Lanneau, M. Partiseti, I. Lefevre
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引用次数: 4
Abstract
Over the last six decades, voltage‐gated sodium (Nav) channels have attracted a great deal of scientific and pharmaceutical interest, driving fundamental advances in both biology and technology. The structure and physiological function of these channels have been extensively studied; clinical and genetic data have uncovered their implication in diseases such as epilepsy, arrhythmias, and pain, bringing them into focus as current and future drug targets. While different techniques have been established to record the activity of Nav channels, proper determination of their properties still presents serious challenges, depending upon the experimental conditions and the desired subtype of channel to be characterized. The aim of this unit is to review the characteristics of Nav channels, their properties, the cells in which they can be studied, and the currently available techniques. Topics covered include the determination of Nav‐channel biophysical properties as well as the use of toxins to discriminate between subtypes using electrophysiological or optical methods. Perspectives on the development of high‐throughput screening assays with their advantages and limitations are also discussed to allow a better understanding of the challenges encountered in voltage‐gated sodium channel preclinical drug discovery. © 2016 by John Wiley & Sons, Inc.
钠离子通道的功能研究:从靶标到化合物鉴定
在过去的60年里,电压门控钠(Nav)通道吸引了大量的科学和制药兴趣,推动了生物学和技术的根本进步。这些通道的结构和生理功能已被广泛研究;临床和遗传数据揭示了它们在癫痫、心律失常和疼痛等疾病中的意义,使它们成为当前和未来药物靶点的焦点。虽然已经建立了不同的技术来记录Nav通道的活性,但根据实验条件和需要表征的通道亚型,正确确定其特性仍然面临着严峻的挑战。本单元的目的是回顾Nav通道的特征,它们的性质,它们可以被研究的细胞,以及目前可用的技术。涵盖的主题包括Nav通道生物物理特性的测定,以及使用电生理或光学方法区分毒素亚型。本文还讨论了高通量筛选分析的发展前景及其优势和局限性,以便更好地理解电压门控钠通道临床前药物发现中遇到的挑战。©2016 by John Wiley & Sons, Inc。
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