TRPM8 Channels and SOCE: Modulatory Crosstalk between Na+ and Ca2+ Signaling

G. H. Bomfim
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引用次数: 1

Abstract

The electrochemical driving forces across the plasma membrane mediated by ion channels, pumps, and exchangers are essential for cellular homeostasis, regulating a wide range of biological processes [1,2]. Although both excitable (e.g., neurons) and non-excitable (e.g., lymphocytes) cells manage their cellular functions through plasmalemmal ion flux, excitable cells change the membrane potential mediated by depolarization and voltage-gated ion channels, while nonexcitable cells control this process by the different downstream processes and ligand-gated ion channels [2,3]. Sodium (Na+) is the principal extracellular cation, being carried to the intracellular space mainly through inward Na+ currents (INa) [2]. Pioneering studies documented that inhibition of INa, but not the calcium (Ca2+) absence, abolished the action potential, indicating that Na+ influx is essential for cell excitability, action Abstract
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TRPM8通道和SOCE: Na+和Ca2+信号之间的调制串扰
离子通道、泵和交换器介导的跨质膜的电化学驱动力对细胞内稳态至关重要,调节着广泛的生物过程[1,2]。虽然可兴奋细胞(如神经元)和不可兴奋细胞(如淋巴细胞)都通过质浆离子通量来调节细胞功能,但可兴奋细胞通过去极化和电压门控离子通道来改变膜电位,而不可兴奋细胞通过不同的下游过程和配体门控离子通道来控制这一过程[2,3]。钠离子(Na+)是主要的细胞外阳离子,主要通过向内的Na+电流(INa)进入细胞内空间[2]。开创性的研究表明,抑制INa,而不是钙(Ca2+)缺失,消除了动作电位,这表明Na+内流对细胞兴奋性和动作至关重要
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