The dynamics of water molecules near an aqueous micellar interface is studied in an atomistic molecular dynamics simulation of cesium pentadecafluorooctanoate (CsPFO) in water. The dipolar orientational time correlation function (tcf) and the translational diffusion of the water molecules are investigated. Results show that both the reorientational and the translational motion of water molecules near the micelle are restricted. In particular, the orientational tcf exhibits a very slow component in the long time which is slower than its bulk value by 2 orders of magnitude. This slow decay seems to be related to the slow decay often observed in experiments. The origin of the slow decay is analyzed
Solvation dynamics of an ion near an aqueous micellar interface are studied in an atomistic molecula...
Dielectric relaxation of aqueous solutions of micelles, proteins, and many complex systems shows an ...
In order to study the temperature dependence of water dynamics at the surface of a self-organized as...
The dynamics of water molecules near an aqueous micellar interface is studied in an atomistic molecu...
The dynamics of water molecules near an aqueous micellar interface is studied in an atomistic molecu...
The dynamics of water molecules near an aqueous micellar interface is studied in an atomistic molecu...
The dynamics of water molecules and ions near an aqueous micellar interface is a subject of intense ...
The dynamics of water molecules and ions near an aqueous micellar interface is a subject of intense ...
The dynamics of water molecules and ions near an aqueous micellar interface is a subject of intense ...
The dynamics of water molecules and ions near an aqueous micellar interface is a subject of intense ...
Solvation dynamics of an ion near an aqueous micellar interface are studied in an atomistic molecula...
Solvation dynamics of an ion near an aqueous micellar interface are studied in an atomistic molecula...
Solvation dynamics of an ion near an aqueous micellar interface are studied in an atomistic molecula...
In order to study the temperature dependence of water dynamics at the surface of a self-organized as...
In order to study the temperature dependence of water dynamics at the surface of a self-organized as...
Solvation dynamics of an ion near an aqueous micellar interface are studied in an atomistic molecula...
Dielectric relaxation of aqueous solutions of micelles, proteins, and many complex systems shows an ...
In order to study the temperature dependence of water dynamics at the surface of a self-organized as...
The dynamics of water molecules near an aqueous micellar interface is studied in an atomistic molecu...
The dynamics of water molecules near an aqueous micellar interface is studied in an atomistic molecu...
The dynamics of water molecules near an aqueous micellar interface is studied in an atomistic molecu...
The dynamics of water molecules and ions near an aqueous micellar interface is a subject of intense ...
The dynamics of water molecules and ions near an aqueous micellar interface is a subject of intense ...
The dynamics of water molecules and ions near an aqueous micellar interface is a subject of intense ...
The dynamics of water molecules and ions near an aqueous micellar interface is a subject of intense ...
Solvation dynamics of an ion near an aqueous micellar interface are studied in an atomistic molecula...
Solvation dynamics of an ion near an aqueous micellar interface are studied in an atomistic molecula...
Solvation dynamics of an ion near an aqueous micellar interface are studied in an atomistic molecula...
In order to study the temperature dependence of water dynamics at the surface of a self-organized as...
In order to study the temperature dependence of water dynamics at the surface of a self-organized as...
Solvation dynamics of an ion near an aqueous micellar interface are studied in an atomistic molecula...
Dielectric relaxation of aqueous solutions of micelles, proteins, and many complex systems shows an ...
In order to study the temperature dependence of water dynamics at the surface of a self-organized as...