SGTx1 is a gating-modifier toxin that has been shown to inhibit the voltage-gated potassium channel Kv2.1. SGTx1 is thought to bind to the S3b-S4a region of the voltage-sensor, and is believed to alter the energetics of gating. Gating-modifier toxins such as SGTx1 are of interest as they can be used to probe the structure and dynamics of their target channels. Although there are experimental data for SGTx1, its interaction with lipid bilayer membranes remains to be characterized. We performed atomistic and coarse-grained molecular dynamics simulations to study the interaction of SGTx1 with a POPC and a 3:1 POPE/POPG lipid bilayer membrane. We reveal the preferential partitioning of SGTx1 into the water/membrane interface of the bilayer. We ...
Free to read at publisher's site. Many venom peptides are potent and selective inhibitors of voltage...
The nature of voltage sensing by voltage-activated ion channels is a key problem in membrane protein...
SummaryThe nature of voltage sensing by voltage-activated ion channels is a key problem in membrane ...
AbstractSGTx1 is a gating-modifier toxin that has been shown to inhibit the voltage-gated potassium ...
SGTx1 is a gating-modifier toxin that has been shown to inhibit the voltage-gated potassium channel ...
SGTx1 is a gating-modifier toxin that has been shown to inhibit the voltage-gated potassium channel ...
VSTx1 is a tarantula venom toxin which binds to the archaebacterial voltage-gated potassium channel ...
Molecular dynamics (MO) simulations were used to study the interaction of voltage-gated potassium (K...
Gating-modifier toxins inhibit voltage-gated ion channels by binding the voltage sensors (VS) and al...
A number of membrane proteins act via binding at the water/lipid bilayer interface. An important exa...
AbstractA number of membrane proteins act via binding at the water/lipid bilayer interface. An impor...
AbstractOur recent molecular dynamics simulation study of hanatoxin 1 (HaTx1), a gating modifier tha...
AbstractGating-modifier toxins inhibit voltage-gated ion channels by binding the voltage sensors (VS...
Many venom peptides are potent and selective inhibitors of voltage-gated ion channels, including cha...
Gating-modifier toxins inhibit voltage-gated ion channels by binding the voltage sensors (VS) and al...
Free to read at publisher's site. Many venom peptides are potent and selective inhibitors of voltage...
The nature of voltage sensing by voltage-activated ion channels is a key problem in membrane protein...
SummaryThe nature of voltage sensing by voltage-activated ion channels is a key problem in membrane ...
AbstractSGTx1 is a gating-modifier toxin that has been shown to inhibit the voltage-gated potassium ...
SGTx1 is a gating-modifier toxin that has been shown to inhibit the voltage-gated potassium channel ...
SGTx1 is a gating-modifier toxin that has been shown to inhibit the voltage-gated potassium channel ...
VSTx1 is a tarantula venom toxin which binds to the archaebacterial voltage-gated potassium channel ...
Molecular dynamics (MO) simulations were used to study the interaction of voltage-gated potassium (K...
Gating-modifier toxins inhibit voltage-gated ion channels by binding the voltage sensors (VS) and al...
A number of membrane proteins act via binding at the water/lipid bilayer interface. An important exa...
AbstractA number of membrane proteins act via binding at the water/lipid bilayer interface. An impor...
AbstractOur recent molecular dynamics simulation study of hanatoxin 1 (HaTx1), a gating modifier tha...
AbstractGating-modifier toxins inhibit voltage-gated ion channels by binding the voltage sensors (VS...
Many venom peptides are potent and selective inhibitors of voltage-gated ion channels, including cha...
Gating-modifier toxins inhibit voltage-gated ion channels by binding the voltage sensors (VS) and al...
Free to read at publisher's site. Many venom peptides are potent and selective inhibitors of voltage...
The nature of voltage sensing by voltage-activated ion channels is a key problem in membrane protein...
SummaryThe nature of voltage sensing by voltage-activated ion channels is a key problem in membrane ...