AbstractThe two alternative carboxyl-termini of Shaker K+ channels strongly influence the rates of inactivation and of recovery from channel inactivation. We show that this distinct inactivation behaviour is due to an alanine/valine amino acid replacement within the Shaker carboxyl-terminus at a site that occurs within the proposed membrane spanning segment S6
We have studied the relation between permeation and recovery from N-type or ball-and-chain inactivat...
The effects of the inactivating peptide from the eukaryotic ShakerBK channel (the ShB peptide) on t...
AbstractWith prolonged stimulation, voltage-activated K+ channels close by a gating process called i...
Shaker potassium channels inactivate and recover from inactivation with multiple exponential compone...
AbstractThe two alternative carboxyl-termini of Shaker K+ channels strongly influence the rates of i...
Voltage-gated K+ channels activate with depolarization of the membrane potential and subsequently in...
AbstractShaker K+ channels inactivate through two distinct molecular mechanisms: N-type, which invol...
Shaker K+ channels inactivate through two distinct molecular mechanisms: N-type, which involves the ...
AbstractIon permeation and gating kinetics of voltage-gated K channels critically depend on the amin...
We have studied ionic and gating currents in mutant and wild-type Shaker K+ channels to investigate ...
AbstractWe previously concluded that the Kv2.1K+ channel inactivates preferentially from partially a...
ABSTRACT: A synthetic peptide patterned after the sequence of the inactivating “ball ” domain of the...
Fast inactivation in ShakerB K channels results from pore-block caused by "ball peptides" attached t...
In response to depolarization of the membrane poten-tial, Shaker K+ channels undergo a series of vol...
We have examined the molecular mechanism of rapid inactivation gating in a mouse Shal K+ channel (mK...
We have studied the relation between permeation and recovery from N-type or ball-and-chain inactivat...
The effects of the inactivating peptide from the eukaryotic ShakerBK channel (the ShB peptide) on t...
AbstractWith prolonged stimulation, voltage-activated K+ channels close by a gating process called i...
Shaker potassium channels inactivate and recover from inactivation with multiple exponential compone...
AbstractThe two alternative carboxyl-termini of Shaker K+ channels strongly influence the rates of i...
Voltage-gated K+ channels activate with depolarization of the membrane potential and subsequently in...
AbstractShaker K+ channels inactivate through two distinct molecular mechanisms: N-type, which invol...
Shaker K+ channels inactivate through two distinct molecular mechanisms: N-type, which involves the ...
AbstractIon permeation and gating kinetics of voltage-gated K channels critically depend on the amin...
We have studied ionic and gating currents in mutant and wild-type Shaker K+ channels to investigate ...
AbstractWe previously concluded that the Kv2.1K+ channel inactivates preferentially from partially a...
ABSTRACT: A synthetic peptide patterned after the sequence of the inactivating “ball ” domain of the...
Fast inactivation in ShakerB K channels results from pore-block caused by "ball peptides" attached t...
In response to depolarization of the membrane poten-tial, Shaker K+ channels undergo a series of vol...
We have examined the molecular mechanism of rapid inactivation gating in a mouse Shal K+ channel (mK...
We have studied the relation between permeation and recovery from N-type or ball-and-chain inactivat...
The effects of the inactivating peptide from the eukaryotic ShakerBK channel (the ShB peptide) on t...
AbstractWith prolonged stimulation, voltage-activated K+ channels close by a gating process called i...