Neuronal Ca2+ channels are key transducers coupling excitability to cellular function. As such, they are tightly regulated by multiple G protein-signaling pathways that finely tune their activity. In addition to fast, direct Gβγ modulation of Ca2+ channels, a slower Gαq/11-mediated mechanism has remained enigmatic despite intensive study. Recent work suggests that membrane phosphoinositides are crucial determinants of Ca2+ channel activity. Here, we discuss their role in Ca2+ channel modulation and the leading theories that seek to elucidate the underlying molecular details of the so-called “mysterious” Gq/11-mediated signal
AbstractRecent results indicate that ‘regulators of G-protein signalling’ may contribute to the gene...
The slow afterhyperpolarization (sAHP) is a post-spike, Ca2+-activated potassium conductance that li...
Tight regulation of calcium entry through the L-type calcium channel CaV1.2 ensures optimal excitati...
SummaryModulation of voltage-gated Ca2+ channels controls activities of excitable cells. We show tha...
N-type voltage-gated Ca2+ (CaV2.2) channels, which enable synaptic transmission by triggering neurot...
AbstractG-protein-coupled receptors that modulate Ca2+ channels that mediate synaptic transmission s...
Neurotransmitter release at presynaptic terminals is a complex process involving calcium ion influx ...
AbstractKCNQ channels belong to a family of potassium ion channels with crucial roles in physiology ...
AbstractCa2+ enters cells through an assortment of Ca2+-permeable channels that respond to different...
Ca2+ entry into neuronal cells is modulated by the activation of numerous G-protein-coupled receptor...
In superior cervical ganglion (SCG) neurons, stimulation of M(1) receptors (M(1)Rs) produces a disti...
AbstractThe modulation of voltage-activated Cat+ channels by neurotransmitters and peptides is very ...
AbstractThe modulation of Ca2+ channel activity by protein kinases contributes to the dynamic regula...
AbstractVoltage gated calcium channels (Ca2+ channels) are key mediators of depolarization induced c...
Ion channels reside in a sea of phospholipids. During normal fluctuations in membrane potential and ...
AbstractRecent results indicate that ‘regulators of G-protein signalling’ may contribute to the gene...
The slow afterhyperpolarization (sAHP) is a post-spike, Ca2+-activated potassium conductance that li...
Tight regulation of calcium entry through the L-type calcium channel CaV1.2 ensures optimal excitati...
SummaryModulation of voltage-gated Ca2+ channels controls activities of excitable cells. We show tha...
N-type voltage-gated Ca2+ (CaV2.2) channels, which enable synaptic transmission by triggering neurot...
AbstractG-protein-coupled receptors that modulate Ca2+ channels that mediate synaptic transmission s...
Neurotransmitter release at presynaptic terminals is a complex process involving calcium ion influx ...
AbstractKCNQ channels belong to a family of potassium ion channels with crucial roles in physiology ...
AbstractCa2+ enters cells through an assortment of Ca2+-permeable channels that respond to different...
Ca2+ entry into neuronal cells is modulated by the activation of numerous G-protein-coupled receptor...
In superior cervical ganglion (SCG) neurons, stimulation of M(1) receptors (M(1)Rs) produces a disti...
AbstractThe modulation of voltage-activated Cat+ channels by neurotransmitters and peptides is very ...
AbstractThe modulation of Ca2+ channel activity by protein kinases contributes to the dynamic regula...
AbstractVoltage gated calcium channels (Ca2+ channels) are key mediators of depolarization induced c...
Ion channels reside in a sea of phospholipids. During normal fluctuations in membrane potential and ...
AbstractRecent results indicate that ‘regulators of G-protein signalling’ may contribute to the gene...
The slow afterhyperpolarization (sAHP) is a post-spike, Ca2+-activated potassium conductance that li...
Tight regulation of calcium entry through the L-type calcium channel CaV1.2 ensures optimal excitati...