AbstractUsing a reactive molecular dynamics simulation methodology, the free energy barrier for water-mediated proton transport between the two proton gating residues Glu203 and Glu148 in the ClC-ec1 antiporter, including the Grotthuss mechanism of proton hopping, was calculated. Three different chloride-binding states, with 1), both the central and internal Cl−, 2), the central Cl− only, and 3), the internal Cl− only, were considered and the coupling to the H+ transport studied. The results show that both the central and internal Cl− are essential for the proton transport from Glu203 to Glu148 to have a favorite free energy driving force. The rotation of the Glu148 side chain was also found to be independent of the internal chloride bindin...
The CLC family of membrane proteins is a ubiquitously expressed class of proton and usually voltage-...
AbstractClC chloride channels and transporters play major roles in cellular excitability, epithelial...
Membrane transport proteins are the main gatekeepers controlling the traffic of molecules in and out...
AbstractUsing a reactive molecular dynamics simulation methodology, the free energy barrier for wate...
AbstractA fundamental question concerning the ClC Cl−/H+ antiporters is the nature of their proton t...
The ClC family of transmembrane proteins functions throughout nature to control the transport of Cl<...
AbstractEarly crystal structures of prokaryotic CLC proteins identified three Cl– binding sites: int...
Chloride-transporting membrane proteins of the CLC family appear in two distinct mechanistic flavors...
Chloride-transporting membrane proteins of the CLC family appear in two distinct mechanistic flavors...
AbstractSeveral prokaryotic ClC proteins have been demonstrated to function as exchangers that trans...
We performed steered molecular dynamics (SMD) and umbrella sampling simulations of Cl− ion migration...
AbstractThe ClC family of anion channels mediates the efficient, selective permeation of Cl− across ...
Studying the migration of an excess proton or a fluoride anion is crucial to understanding mechanism...
ClC-ec1 is a prototype of the ClC antiporters, proteins that stoichiometrically exchange Cl– and H+ ...
Despite several years of research, the ion exchange mechanisms in chloride/proton antiporters and ma...
The CLC family of membrane proteins is a ubiquitously expressed class of proton and usually voltage-...
AbstractClC chloride channels and transporters play major roles in cellular excitability, epithelial...
Membrane transport proteins are the main gatekeepers controlling the traffic of molecules in and out...
AbstractUsing a reactive molecular dynamics simulation methodology, the free energy barrier for wate...
AbstractA fundamental question concerning the ClC Cl−/H+ antiporters is the nature of their proton t...
The ClC family of transmembrane proteins functions throughout nature to control the transport of Cl<...
AbstractEarly crystal structures of prokaryotic CLC proteins identified three Cl– binding sites: int...
Chloride-transporting membrane proteins of the CLC family appear in two distinct mechanistic flavors...
Chloride-transporting membrane proteins of the CLC family appear in two distinct mechanistic flavors...
AbstractSeveral prokaryotic ClC proteins have been demonstrated to function as exchangers that trans...
We performed steered molecular dynamics (SMD) and umbrella sampling simulations of Cl− ion migration...
AbstractThe ClC family of anion channels mediates the efficient, selective permeation of Cl− across ...
Studying the migration of an excess proton or a fluoride anion is crucial to understanding mechanism...
ClC-ec1 is a prototype of the ClC antiporters, proteins that stoichiometrically exchange Cl– and H+ ...
Despite several years of research, the ion exchange mechanisms in chloride/proton antiporters and ma...
The CLC family of membrane proteins is a ubiquitously expressed class of proton and usually voltage-...
AbstractClC chloride channels and transporters play major roles in cellular excitability, epithelial...
Membrane transport proteins are the main gatekeepers controlling the traffic of molecules in and out...