心脏和大脑中的l型Ca2+通道。

Jörg Striessnig, Alexandra Pinggera, Gurjot Kaur, Gabriella Bock, Petronel Tuluc
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引用次数: 146

摘要

l型钙通道(Cav1)是电压门控钙通道的三大类(Cav1-3)之一。它们被确定为临床使用的钙通道阻滞剂(CCBs;所谓的钙拮抗剂),是第一类可获得的生化表征。已知的10个α1亚基中的4个(Cav1.1-Cav1.4)形成l型钙通道(ltcc)的孔,并含有二氢吡啶和其他化学类有机CCBs的高亲和力药物结合位点。基本上在所有的电兴奋细胞中都有一种或多种LTCC亚型的表达,因此,包括肌肉、脑、内分泌和感觉功能在内的许多身体功能依赖于适当的LTCC活性也就不足为奇了。基因敲除和遗传性人类疾病已经允许详细了解这些通道的生理和病理生理作用。目前,对人类基因组的全基因组关联研究和分析提供了更多的线索,表明即使是通道表达或活动的微小变化也可能与疾病有关,如精神疾病或心律失常。因此,了解LTCC亚型的结构-功能关系、它们对生理功能的差异贡献以及它们通过调节细胞过程的微调是很重要的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

L-type Ca<sup>2+</sup> channels in heart and brain.

L-type Ca<sup>2+</sup> channels in heart and brain.

L-type Ca<sup>2+</sup> channels in heart and brain.

L-type Ca2+ channels in heart and brain.

L-type calcium channels (Cav1) represent one of the three major classes (Cav1-3) of voltage-gated calcium channels. They were identified as the target of clinically used calcium channel blockers (CCBs; so-called calcium antagonists) and were the first class accessible to biochemical characterization. Four of the 10 known α1 subunits (Cav1.1-Cav1.4) form the pore of L-type calcium channels (LTCCs) and contain the high-affinity drug-binding sites for dihydropyridines and other chemical classes of organic CCBs. In essentially all electrically excitable cells one or more of these LTCC isoforms is expressed, and therefore it is not surprising that many body functions including muscle, brain, endocrine, and sensory function depend on proper LTCC activity. Gene knockouts and inherited human diseases have allowed detailed insight into the physiological and pathophysiological role of these channels. Genome-wide association studies and analysis of human genomes are currently providing even more hints that even small changes of channel expression or activity may be associated with disease, such as psychiatric disease or cardiac arrhythmias. Therefore, it is important to understand the structure-function relationship of LTCC isoforms, their differential contribution to physiological function, as well as their fine-tuning by modulatory cellular processes.

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