The Second Electrolyte Wedge problem studies diffusion-reaction-conduction processes associated with current production in a porous electrode. Two rate-determining reaction steps occur in this formulation - one in the electrolyte wedge and one at the electrolyte-solid interface. Existence and uniqueness of solutions to this problem are proven, and thus current density is proven to be finite. Numerical and asymptotic analysis are completed and expressions for the current density and total current produced by the electrolyte are given
The electrochemical reduction of oxygen in 0.88 M KOH at 25°C was studied using two silver plated co...
This paper presents an interpretation of the experimental results obtained on the electrowinning of ...
We present lattice Boltzmann pore-scale numerical simulations of solute transport and reaction in po...
This work studies mathematical issues associated with steady-state modelling of diffusion-reaction-c...
Diusion-reaction-conduction processes in porous electrodes: the electrolyte wedge proble
This work explores the use of numerical experiments in two specific cases: (1) the discovery of two ...
The kinetics of a charge-transfer reaction at a porous gas-diffusion electrode are presented using t...
Reactions at gas-diffusion electrodes are modeled by treating the electrolyte meniscus geometry as a...
This research presents a universal characterization of the electric field coupled with a non-isotrop...
It is often desirable to be able to predict the total current density at an electrode when multiple ...
The concentration profiles of reacting species at the electrode—solution interface under a periodic ...
Electropolymerization plays a critical role in the electrochemical systems. In this chapter, we addr...
A continuum-model approach, analogous to porous electrode theory, was applied to a thin-layer cell o...
A solid electrolyte interphase (SEI) growth model is developed in a mixed modethat contains solvent ...
Investigating the electrokinetic performance of novel electrode materials by means of diffusional cy...
The electrochemical reduction of oxygen in 0.88 M KOH at 25°C was studied using two silver plated co...
This paper presents an interpretation of the experimental results obtained on the electrowinning of ...
We present lattice Boltzmann pore-scale numerical simulations of solute transport and reaction in po...
This work studies mathematical issues associated with steady-state modelling of diffusion-reaction-c...
Diusion-reaction-conduction processes in porous electrodes: the electrolyte wedge proble
This work explores the use of numerical experiments in two specific cases: (1) the discovery of two ...
The kinetics of a charge-transfer reaction at a porous gas-diffusion electrode are presented using t...
Reactions at gas-diffusion electrodes are modeled by treating the electrolyte meniscus geometry as a...
This research presents a universal characterization of the electric field coupled with a non-isotrop...
It is often desirable to be able to predict the total current density at an electrode when multiple ...
The concentration profiles of reacting species at the electrode—solution interface under a periodic ...
Electropolymerization plays a critical role in the electrochemical systems. In this chapter, we addr...
A continuum-model approach, analogous to porous electrode theory, was applied to a thin-layer cell o...
A solid electrolyte interphase (SEI) growth model is developed in a mixed modethat contains solvent ...
Investigating the electrokinetic performance of novel electrode materials by means of diffusional cy...
The electrochemical reduction of oxygen in 0.88 M KOH at 25°C was studied using two silver plated co...
This paper presents an interpretation of the experimental results obtained on the electrowinning of ...
We present lattice Boltzmann pore-scale numerical simulations of solute transport and reaction in po...