When new, better polymeric materials are to be developed for use as gas separation membranes, knowledge of the underlying principles of the separation process is essential. Much research is spent on the elucidation of the mechanism by which gas molecules sorb into and move through a polymer. Models were developed to describe the macroscopic behavior of the polymer in gas separation processes. The most widely used is the dual mode sorption model. To gain further insight in the mechanism the microscopic behavior, i.e. at a molecular scale, has to be considered. This thesis deals with one aspect of this last topic: the diffusion of gases through the polymer matrix, viewed at a molecular scale
Ziel dieser Arbeit ist die Analyse zweier physikalischer Prozesse, die stattfinden wenn ein festes ...
International audienceThree molecular simulation techniques to predict the gas sorption isotherms in...
Diffusion of small molecules of different polarities in polymeric membranes is the most interesting ...
Molecular modeling techniques were used to investigate the permeability and selectivity of various n...
Membrane-based separations enable technology for reducing energy usage. Molecular simulations of pol...
Among various reported membrane-based gas separation processes, the best explanation is generally ac...
AbstractThe given work considers gas separation process using non-porous polymer membranes. Here mem...
In the present work the mass transfer of gaseous multicomponent mixtures in polymeric membranes is d...
A multiscale, physically-based, reaction-diffusion kinetics model is developed for non-steady-state ...
Separation of many commercially important gas pairs using membranes is a growing application in the ...
The sorption properties of polymers and the mobility of penetrants are the main factors which determ...
It is important for many industrial processes to design new materials with improved selective permea...
We have used equilibrium molecular dynamics (EMD) simulations to investigate the temperature depende...
This study deals with Polyethersulfone (representative glassy polymer) and PEBAX-1657 (representativ...
The nonideal behavior of polymeric membranes during separation of gas mixtures can be quantified via...
Ziel dieser Arbeit ist die Analyse zweier physikalischer Prozesse, die stattfinden wenn ein festes ...
International audienceThree molecular simulation techniques to predict the gas sorption isotherms in...
Diffusion of small molecules of different polarities in polymeric membranes is the most interesting ...
Molecular modeling techniques were used to investigate the permeability and selectivity of various n...
Membrane-based separations enable technology for reducing energy usage. Molecular simulations of pol...
Among various reported membrane-based gas separation processes, the best explanation is generally ac...
AbstractThe given work considers gas separation process using non-porous polymer membranes. Here mem...
In the present work the mass transfer of gaseous multicomponent mixtures in polymeric membranes is d...
A multiscale, physically-based, reaction-diffusion kinetics model is developed for non-steady-state ...
Separation of many commercially important gas pairs using membranes is a growing application in the ...
The sorption properties of polymers and the mobility of penetrants are the main factors which determ...
It is important for many industrial processes to design new materials with improved selective permea...
We have used equilibrium molecular dynamics (EMD) simulations to investigate the temperature depende...
This study deals with Polyethersulfone (representative glassy polymer) and PEBAX-1657 (representativ...
The nonideal behavior of polymeric membranes during separation of gas mixtures can be quantified via...
Ziel dieser Arbeit ist die Analyse zweier physikalischer Prozesse, die stattfinden wenn ein festes ...
International audienceThree molecular simulation techniques to predict the gas sorption isotherms in...
Diffusion of small molecules of different polarities in polymeric membranes is the most interesting ...