Kinetics of Ca2+-activated K+ channels from rabbit muscle incorporated into planar bilayers. Evidence for a Ca2+ and Ba2+ blockade.
about
Mechanism of memantine block of NMDA-activated channels in rat retinal ganglion cells: uncompetitive antagonismMode of action of iberiotoxin, a potent blocker of the large conductance Ca(2+)-activated K+ channelIonic interactions of Ba 2+ blockades in the MthK K + channelKcnkø: single, cloned potassium leak channels are multi-ion poresKinetic states and modes of single large-conductance calcium-activated potassium channels in cultured rat skeletal muscleUnusual calcium-activated potassium channels of bovine parathyroid cells.The barium site in a potassium channel by x-ray crystallography.The conserved potassium channel filter can have distinct ion binding profiles: structural analysis of rubidium, cesium, and barium binding in NaK2KConduction properties of the M-channel in rat sympathetic neurons.Opening and closing transitions for BK channels often occur in two steps via sojourns through a brief lifetime subconductance state.Ba2+ release from soda glass modifies single maxi K+ channel activity in patch clamp experiments.Reconstitution of expressed KCa channels from Xenopus oocytes to lipid bilayers.Interaction of Ba2+ with the pores of the cloned inward rectifier K+ channels Kir2.1 expressed in Xenopus oocytes.Potassium blocks barium permeation through a calcium-activated potassium channel.Actin modifies Ca2+ block of epithelial Na+ channels in planar lipid bilayers.Potassium-selective block of barium permeation through single KcsA channelsMulti-ion conduction and selectivity in the high-conductance Ca++-activated K+ channel from skeletal muscleTrapping single ions inside single ion channels.Both barium and calcium activate neuronal potassium currents.Conduction, Blockade and Gating in a Ca -activated K Channel Incorporated into Planar Lipid BilayersNon-vesicular transfer of membrane proteins from nanoparticles to lipid bilayers.Metal-driven operation of the human large-conductance voltage- and Ca2+-dependent potassium channel (BK) gating ring apparatus.Calcium ions open a selectivity filter gate during activation of the MthK potassium channelBarium ions selectively activate BK channels via the Ca2+-bowl siteSingle channel recordings of calcium-activated potassium channels in the apical membrane of rabbit cortical collecting tubules.Gating and inward rectifying properties of the MthK K+ channel with and without the gating ring.Intrinsic electrostatic potential in the BK channel pore: role in determining single channel conductance and block.Mechanism of ion transport through the anion-selective channel of the Pseudomonas aeruginosa outer membraneDivalent ion trapping inside potassium channels of human T lymphocytes"Caged calcium" in Aplysia pacemaker neurons. Characterization of calcium-activated potassium and nonspecific cation currents.Two K+ channel types, muscarinic agonist-activated and inwardly rectifying, in a Cl- secretory epithelium: the avian salt gland.Maxi K+ channels and their relationship to the apical membrane conductance in Necturus gallbladder epithelium.Divalent cation selectivity for external block of voltage-dependent Na+ channels prolonged by batrachotoxin. Zn2+ induces discrete substates in cardiac Na+ channels.Zn2(+)-induced subconductance events in cardiac Na+ channels prolonged by batrachotoxin. Current-voltage behavior and single-channel kinetics.Multi-ion occupancy alters gating in high-conductance, Ca(2+)-activated K+ channels.On the interaction of bovine pancreatic trypsin inhibitor with maxi Ca(2+)-activated K+ channels. A model system for analysis of peptide-induced subconductance states.Mechanism of Ba2+ block of M-like K channels of rod photoreceptors of tiger salamanders.Separation of gating properties from permeation and block in mslo large conductance Ca-activated K+ channels.Kinetic structure of large-conductance Ca2+-activated K+ channels suggests that the gating includes transitions through intermediate or secondary states. A mechanism for flickers.Effect of phosphatidylserine on unitary conductance and Ba2+ block of the BK Ca2+-activated K+ channel: re-examination of the surface charge hypothesis.
P2860
Q24530210-E68B1A09-349D-493D-AC3A-031E39616AE5Q24534368-522AC0CA-1A1A-48FD-9A77-873818BE7C57Q27684688-751495BA-D219-4E21-98C9-ADB64A6CCD03Q28346209-19ADFF68-C3CD-434A-8F9D-49E95994A75FQ28769519-E28EAA6E-AA95-40F5-AFC8-DD960695DC17Q33651575-474FAC1C-BA56-4BFC-BAE5-FE5844EA6D2FQ33891602-374680E3-1957-47BC-8986-BE3470D471C5Q33964025-2C2F9369-42C9-4190-AB68-0216C0D4CA94Q34017188-FFFC64ED-5603-4906-9E7C-15DFF622B7C6Q34019526-02E8BCF0-7296-4044-9ECC-F3245D130B47Q34088049-A5FBCDD2-B47C-4DAC-AEF7-C3AB829BF5CAQ34115116-9A42501D-1024-462C-AE2A-BC2766A60E6FQ34169325-CB100FB1-2F2D-403F-8066-275BE8871C49Q34170721-82685210-0E70-4A60-9CD8-B0284B407148Q34175499-06B30210-D611-4031-8C20-599981C6E6BFQ34215712-7B4AE8E2-E848-411E-8AD3-1FDD64CFD6C6Q34258474-F5301104-7F27-40F0-86A7-79DACE161FCEQ34259350-22432E25-3400-4643-AEB9-01E67F196679Q34347364-90F4189A-E63C-4451-8B9C-4F1D2D83590EQ34536331-908CDF3B-3CFE-4446-8E05-96D7425B32CFQ34545669-7D274C3E-2D24-4CE0-8514-70B621F12A0AQ35063533-4B01801F-B57B-4CED-ACDD-BEF3BA5BC8BCQ36087911-859A4AC5-6530-42B0-A744-8D8C599603D9Q36094231-EE74CB76-DDEC-4E2F-BFCA-4571858BB6F3Q36265420-6D36DC7C-6361-4EF3-A1B7-AB79FFBA3164Q36299689-488E5318-5499-4184-BED4-BE45E60D9AEDQ36404804-A1FE69DE-5533-4E22-90B8-E20CF77EC6FBQ36409552-7634B259-F7DB-4022-9C62-288489A16A2EQ36410242-691C2A04-9F8A-42DF-A538-FA65D2A3AC5CQ36410306-8E17F2F5-074E-48EC-972D-3F7707A19D9DQ36410311-C455C135-F4D9-4099-A5DB-24484919E781Q36410528-89B14B3F-C2DF-48C2-BF31-23031505D551Q36410728-424A8C33-29FD-484E-88C2-09A0A85F430FQ36410747-69F2EC82-7787-41FD-AD97-A706DF66FED2Q36410821-D6A0DFEB-5244-42D8-817E-D22780AB6BCEQ36410925-068FAA8A-2247-40E7-867C-25456795900DQ36411502-8143BCF9-810A-44D0-A9A1-8A9F661004E1Q36411870-E6F79C0B-23AF-45A0-B634-283464E5ADF8Q36412088-48FC1233-13C8-4789-86B7-303804C93AD0Q36412458-9BBAFD47-94AD-43E2-9E2A-E484661A1A4F
P2860
Kinetics of Ca2+-activated K+ channels from rabbit muscle incorporated into planar bilayers. Evidence for a Ca2+ and Ba2+ blockade.
description
1983 nî lūn-bûn
@nan
1983年の論文
@ja
1983年論文
@yue
1983年論文
@zh-hant
1983年論文
@zh-hk
1983年論文
@zh-mo
1983年論文
@zh-tw
1983年论文
@wuu
1983年论文
@zh
1983年论文
@zh-cn
name
Kinetics of Ca2+-activated K+ ...... for a Ca2+ and Ba2+ blockade.
@en
type
label
Kinetics of Ca2+-activated K+ ...... for a Ca2+ and Ba2+ blockade.
@en
prefLabel
Kinetics of Ca2+-activated K+ ...... for a Ca2+ and Ba2+ blockade.
@en
P356
P1476
Kinetics of Ca2+-activated K+ ...... for a Ca2+ and Ba2+ blockade.
@en
P2093
P304
P356
10.1085/JGP.82.4.543
P577
1983-10-01T00:00:00Z