The III-IV linker (L(III-IV)) of the rat brain sodium channel is critical for fast inactivation, possibly forming a fast inactivation particle. Inactivation can be disrupted by mutation of a conserved alanine at position 1329 in the S4-S5 loop of domain III. Combination of a charged mutation at 1329 with a compensatory (opposite) charge mutation at position 1489 in L(III-IV) partially restores inactivation of the channel. The compensatory charge mutant channel has a single-channel mean open time that is similar to that of the wild-type channel and is approximately 50 times shorter than that of the L(III-IV) mutant channel. The results of thermodynamic cycle analysis indicate that the mutations in domain III S4-S5 and L(III-IV) have a coupli...
AbstractComputations on sodium channel gating were conducted using a closed–open-inactivated coupled...
AbstractWe compared wild-type rat skeletal muscle NaChs (μ1) and a mutant NaCh (Y1586K) that has a s...
Slow inactivation occurs in voltage-gated Na+ channels when the membrane is depolarized for several ...
The III-IV linker (L(III-IV)) of the rat brain sodium channel is critical for fast inactivation, pos...
The role of the voltage sensor positive charges in fast and slow inactivation of the rat brain IIA s...
The role of the voltage sensor positive charges in the activation and deactivation gating of the rat...
The intracellular linker between domains III and IV of the voltage-gated Na channel mediates fast in...
AbstractNa channels inactivate quickly after opening, and the very highly positively charged cytopla...
The fourth segment of domain 4 (S4/D4) in Na+ channels is a voltage sensor especially implicated in ...
AbstractWhile studying the adult rat skeletal muscle Na+ channel outer vestibule, we found that cert...
The D4/S4-5 interhelical region plays a role in sodium channel fast inactivation. Examination of S4-...
Motion transmission from voltage sensors to inactivation gates is an important problem in the genera...
Inactivation of voltage-gated Na+ channels (VGSC) is essential for the regulation of cellular excita...
Thesis (Ph. D.)--University of Hawaii at Manoa, 1993.Microfiche.vii 70 leaves, bound ill. 29 cmSodiu...
Ion channels play a vital role by fulfilling distinct biological functions like providing the basis ...
AbstractComputations on sodium channel gating were conducted using a closed–open-inactivated coupled...
AbstractWe compared wild-type rat skeletal muscle NaChs (μ1) and a mutant NaCh (Y1586K) that has a s...
Slow inactivation occurs in voltage-gated Na+ channels when the membrane is depolarized for several ...
The III-IV linker (L(III-IV)) of the rat brain sodium channel is critical for fast inactivation, pos...
The role of the voltage sensor positive charges in fast and slow inactivation of the rat brain IIA s...
The role of the voltage sensor positive charges in the activation and deactivation gating of the rat...
The intracellular linker between domains III and IV of the voltage-gated Na channel mediates fast in...
AbstractNa channels inactivate quickly after opening, and the very highly positively charged cytopla...
The fourth segment of domain 4 (S4/D4) in Na+ channels is a voltage sensor especially implicated in ...
AbstractWhile studying the adult rat skeletal muscle Na+ channel outer vestibule, we found that cert...
The D4/S4-5 interhelical region plays a role in sodium channel fast inactivation. Examination of S4-...
Motion transmission from voltage sensors to inactivation gates is an important problem in the genera...
Inactivation of voltage-gated Na+ channels (VGSC) is essential for the regulation of cellular excita...
Thesis (Ph. D.)--University of Hawaii at Manoa, 1993.Microfiche.vii 70 leaves, bound ill. 29 cmSodiu...
Ion channels play a vital role by fulfilling distinct biological functions like providing the basis ...
AbstractComputations on sodium channel gating were conducted using a closed–open-inactivated coupled...
AbstractWe compared wild-type rat skeletal muscle NaChs (μ1) and a mutant NaCh (Y1586K) that has a s...
Slow inactivation occurs in voltage-gated Na+ channels when the membrane is depolarized for several ...