Voltage-dependent Ca 2+ channels play a central role in controlling neurotransmitter release
at the synapse 1,2 . They can be inhibited by certain G-protein-coupled receptors, acting …

N-, P- and Q-type voltage-dependent Ca 2+ channels control neurotransmitter release in the
nervous system and are blocked by ω-conotoxin MVIIC. In this study, both a high affinity and …

Revised Manuscript Received December 8, 1993® abstract: The authentic subunit compositions
of neuronal K+ channels purified from bovine brain were analyzed using a monoclonal …

The β subunit of the voltage-dependent Ca 2+ channel is a cytoplasmic protein that interacts
directly with an α 1 subunit, thereby modulating the biophysical properties of the channel. …

Revised Manuscript Received August 3, 1992 abstract: Neuronal acceptors for a-dendrotoxin
(a-DTX) have recently been purified from mammalian brain and shown to consist of two …

In voltage-dependent Ca 2+ channels, the α 1 and β subunits interact via two cytoplasmic
regions defined as the Alpha Interaction Domain (AID) and Beta Interaction Domain (BID). …

ATP-sensitive K + (K ATP ) channels play an important role in the regulation of smooth muscle
membrane potential. To investigate the properties of K ATP channels in guinea pig urinary …

ATP-sensitive K + (K ATP ) channels in the human medulloblastoma TE671 cell line were
characterized by membrane potential assays utilizing a potentiometric fluorescent probe, bis-(1…

The pharmacological and molecular properties of ATP-sensitive K + channels present in pig
detrusor smooth muscle were investigated. In isolated pig detrusor strips, ATP-sensitive K + …

The pharmacological properties of K ATP channels generated by stable co‐expression of
the sulphonylurea receptor SUR1 and the inwardly rectifying K + channel Kir6.2 were …