Voltage-gated calcium channels couple depolarization of the cell-surface membrane to entry
of calcium, which triggers secretion, contraction, neurotransmission, gene expression, and …

Voltage-gated calcium channels are required for many key functions in the body. In this
review, the different subtypes of voltage-gated calcium channels are described and their …

Voltage-gated calcium channels are the primary mediators of depolarization-induced
calcium entry into neurons. There is great diversity of calcium channel subtypes due to …

Voltage-gated calcium (Ca2+) channels are key transducers of membrane potential
changes into intracellular Ca2+ transients that initiate many physiological events. There are …

Most neuronal communication relies upon the synchronous release of neurotransmitters,
which occurs through synaptic vesicle exocytosis triggered by action potential invasion of a …

Axons are generally considered as reliable transmission cables in which stable propagation
occurs once an action potential is generated. Axon dysfunction occupies a central position in …

▪ Abstract Voltage-gated Ca2+ channels mediate Ca2+ entry into cells in response to
membrane depolarization. Electrophysiological studies reveal different Ca2+ currents …

Nerve terminals are specific sites of action of a very large number of toxins produced by
many different organisms. The mechanism of action of three groups of presynaptic …

Voltage-gated calcium (Ca 2+) channels initiate release of neurotransmitters at synapses,
and regulation of presynaptic Ca 2+ channels has a powerful influence on synaptic strength …

Presynaptic CaV2. 2 (N-type) calcium channels are subject to modulation by interaction with
syntaxin 1 and by a syntaxin 1-sensitive GαO G-protein pathway. We used biochemical …