AbstractVoltage-dependent movement of a sodium channel S4 segment was examined by cysteine scanning mutagenesis and testing accessibility of the residues to hydrophilic cysteine-modifying reagents. These experiments indicate that 2 charged S4 residues move completely from an internally accessible to an externally accessible location in response to depolarization by passage through a short “channel” in the protein. The energetic problems of S4 movement have thus been solved in the same way that many ion channels achieve highly selective and rapid ion permeation through an open pore, by restricting the contact region between the permion and its channel
AbstractThe S4 transmembrane domain of the family of voltage-gated ion channels is generally thought...
AbstractThe activation of Shaker K+ channels is steeply voltage dependent. To determine whether cons...
AbstractThe positively charged S4 region of voltage-dependent potassium channels moves outward durin...
AbstractVoltage-dependent movement of a sodium channel S4 segment was examined by cysteine scanning ...
The second and third basic residues of the S4 segment of domain 4 (D4:R2 and D4:R3) of the human ske...
AbstractThe mutation R1448C substitutes a cysteine for the outermost arginine in the fourth transmem...
AbstractThe mutation R1448C substitutes a cysteine for the outermost arginine in the fourth transmem...
SummaryVoltage-gated ion channels respond to changes in membrane potential by movement of their volt...
AbstractThe role of hydrophobic residues in voltage sensors S4 of voltage-sensitive ion channels is ...
AbstractWe have probed internal and external accessibility of S4 residues to the membrane-impermeant...
The second and third basic residues of the S4 segment of domain 4 (D4:R2 and D4:R3) of the human ske...
Voltage sensing is due mainly to the movement of positively charged S4 segments through the membrane...
Voltage sensing is due mainly to the movement of positively charged S4 segments through the membrane...
Voltage sensing is due mainly to the movement of positively charged S4 segments through the membrane...
This dissertation addressed the question of sodium channel gating. The study began with an investiga...
AbstractThe S4 transmembrane domain of the family of voltage-gated ion channels is generally thought...
AbstractThe activation of Shaker K+ channels is steeply voltage dependent. To determine whether cons...
AbstractThe positively charged S4 region of voltage-dependent potassium channels moves outward durin...
AbstractVoltage-dependent movement of a sodium channel S4 segment was examined by cysteine scanning ...
The second and third basic residues of the S4 segment of domain 4 (D4:R2 and D4:R3) of the human ske...
AbstractThe mutation R1448C substitutes a cysteine for the outermost arginine in the fourth transmem...
AbstractThe mutation R1448C substitutes a cysteine for the outermost arginine in the fourth transmem...
SummaryVoltage-gated ion channels respond to changes in membrane potential by movement of their volt...
AbstractThe role of hydrophobic residues in voltage sensors S4 of voltage-sensitive ion channels is ...
AbstractWe have probed internal and external accessibility of S4 residues to the membrane-impermeant...
The second and third basic residues of the S4 segment of domain 4 (D4:R2 and D4:R3) of the human ske...
Voltage sensing is due mainly to the movement of positively charged S4 segments through the membrane...
Voltage sensing is due mainly to the movement of positively charged S4 segments through the membrane...
Voltage sensing is due mainly to the movement of positively charged S4 segments through the membrane...
This dissertation addressed the question of sodium channel gating. The study began with an investiga...
AbstractThe S4 transmembrane domain of the family of voltage-gated ion channels is generally thought...
AbstractThe activation of Shaker K+ channels is steeply voltage dependent. To determine whether cons...
AbstractThe positively charged S4 region of voltage-dependent potassium channels moves outward durin...