Published online 6 September 2011The voltage dependence of the ionic and gating currents of a K channel is dependent on the activation barriers of a voltage sensor with a potential function which may be derived from the principal electrostatic forces on an S4 segment in an inhomogeneous dielectric medium. By variation of the parameters of a voltage-sensing domain model, consistent with x-ray structures and biophysical data, the lowest frequency of the survival probability of each stationary state derived from a solution of the Smoluchowski equation provides a good fit to the voltage dependence of the slowest time constant of the ionic current in a depolarized membrane, and the gating current exhibits a rising phase that precedes an exponent...
Two-pore domain (K2P) K+ channels are major regulators of excitability that endow cells with an outw...
Steady-state and kinetic properties of gating currents of the Shaker K+ channels were studied in cha...
AbstractThe activation of Shaker K+ channels is steeply voltage dependent. To determine whether cons...
The energy barrier to the activated state for the S4 voltage sensor of a K channel is dependent on t...
The activation of a K+ channel sensor in two sequential stages during a voltage clamp may be describ...
Forces acting on the S4 segments of the channel, the voltage-sensing structures, are analyzed. The c...
AbstractThe S4 transmembrane domain of the family of voltage-gated ion channels is generally thought...
Voltage-gated ion channels mediate electrical excitability of cellular membranes. Reduced models of ...
A multiscale physical model of Shaker-type Kv channels is used to span from atomic-scale interaction...
Voltage-gated ion channels play fundamental roles in neural excitability and thus dysfunctional chan...
AbstractThe fourth transmembrane helix (S4) is the primary voltage-sensor of voltage-gated ion chann...
AbstractIn the preceding, accompanying article, we present models of the structure and voltage-depen...
AbstractIn this article, we present the results of the molecular dynamics simulations of amphiphilic...
AbstractThe recent crystal structures of the voltage-gated potassium channel KvAP and its isolated v...
SummaryVoltage-gated ion channels respond to changes in membrane potential by movement of their volt...
Two-pore domain (K2P) K+ channels are major regulators of excitability that endow cells with an outw...
Steady-state and kinetic properties of gating currents of the Shaker K+ channels were studied in cha...
AbstractThe activation of Shaker K+ channels is steeply voltage dependent. To determine whether cons...
The energy barrier to the activated state for the S4 voltage sensor of a K channel is dependent on t...
The activation of a K+ channel sensor in two sequential stages during a voltage clamp may be describ...
Forces acting on the S4 segments of the channel, the voltage-sensing structures, are analyzed. The c...
AbstractThe S4 transmembrane domain of the family of voltage-gated ion channels is generally thought...
Voltage-gated ion channels mediate electrical excitability of cellular membranes. Reduced models of ...
A multiscale physical model of Shaker-type Kv channels is used to span from atomic-scale interaction...
Voltage-gated ion channels play fundamental roles in neural excitability and thus dysfunctional chan...
AbstractThe fourth transmembrane helix (S4) is the primary voltage-sensor of voltage-gated ion chann...
AbstractIn the preceding, accompanying article, we present models of the structure and voltage-depen...
AbstractIn this article, we present the results of the molecular dynamics simulations of amphiphilic...
AbstractThe recent crystal structures of the voltage-gated potassium channel KvAP and its isolated v...
SummaryVoltage-gated ion channels respond to changes in membrane potential by movement of their volt...
Two-pore domain (K2P) K+ channels are major regulators of excitability that endow cells with an outw...
Steady-state and kinetic properties of gating currents of the Shaker K+ channels were studied in cha...
AbstractThe activation of Shaker K+ channels is steeply voltage dependent. To determine whether cons...