The Fickian diffusivity of water in Nafion has been shown to exhibit a local maximum. In the present research effort it is shown that this spike vanishes if the equilibrium water content and chemical diffusivity are modeled carefully. Further, it is shown that permeation experiments falsely can generate a local maximum, if a wrong equilibrium water content relation is used. Finally, in order to study the obtained diffusivity model a parameter variation is carried out using a one-dimensional steady-state model. The effect of diffusivity model, surface roughness and water content driving force is studied
The transport properties of perfluorinated cation exchange membranes in chlor\u2010alkali cell solut...
Most modeling work of the polymer electrolyte membrane fuel cell (PEMFC) assumes an equilibrium rela...
Model of water transport in a membrane electrode assembly of a polymer electrolyte fuel cell (PEFC) ...
The transport of water vapor through a Nafion membrane includes absorption of water at one membrane/...
The transport of water vapor through a Nafion membrane includes absorption of water at one membrane/...
In this paper, experimental and simulated data for the diffusion of water across Nafion membranes as...
The development of predictive mathematical models for water management in polymer electrolyte membra...
The electro-osmotic drag coefficient in Nafion 117 membrane is determined experimentally at differen...
Water absorption, membrane swelling, and self-diffusivity of water in 1100 equivalent weight Nafion ...
We investigated the time-dependent self-diffusion coefficients of water, D(T eff), in polymer electr...
The membrane hydration involves a complex kinetics in which the Nafion®-water system shows variable ...
This article discusses an approach to model the water transport in the membranes of PEM fuel cells d...
Water transport resistance through the polymer electrolyte membrane was evaluated by measuring the w...
This paper compares proton diffusion through plasma-polymerised proton-exchange membranes (PEMs) pro...
It is well known that the proton-exchange membrane is perhaps the most critical component of a polym...
The transport properties of perfluorinated cation exchange membranes in chlor\u2010alkali cell solut...
Most modeling work of the polymer electrolyte membrane fuel cell (PEMFC) assumes an equilibrium rela...
Model of water transport in a membrane electrode assembly of a polymer electrolyte fuel cell (PEFC) ...
The transport of water vapor through a Nafion membrane includes absorption of water at one membrane/...
The transport of water vapor through a Nafion membrane includes absorption of water at one membrane/...
In this paper, experimental and simulated data for the diffusion of water across Nafion membranes as...
The development of predictive mathematical models for water management in polymer electrolyte membra...
The electro-osmotic drag coefficient in Nafion 117 membrane is determined experimentally at differen...
Water absorption, membrane swelling, and self-diffusivity of water in 1100 equivalent weight Nafion ...
We investigated the time-dependent self-diffusion coefficients of water, D(T eff), in polymer electr...
The membrane hydration involves a complex kinetics in which the Nafion®-water system shows variable ...
This article discusses an approach to model the water transport in the membranes of PEM fuel cells d...
Water transport resistance through the polymer electrolyte membrane was evaluated by measuring the w...
This paper compares proton diffusion through plasma-polymerised proton-exchange membranes (PEMs) pro...
It is well known that the proton-exchange membrane is perhaps the most critical component of a polym...
The transport properties of perfluorinated cation exchange membranes in chlor\u2010alkali cell solut...
Most modeling work of the polymer electrolyte membrane fuel cell (PEMFC) assumes an equilibrium rela...
Model of water transport in a membrane electrode assembly of a polymer electrolyte fuel cell (PEFC) ...