We propose a procedure to compute the steady-state transport of charged particles based on the Nernst–Planck (NP) equation of electrodiffusion. To close the NP equation and to establish a relation between the concentration and electrochemical potential profiles, we introduce the Local Equilibrium Monte Carlo (LEMC) method. In this method, Grand Canonical Monte Carlo simulations are performed using the electrochemical potential specified for the distinct volume elements. An iteration procedure that self-consistently solves the NP and flux continuity equations with LEMC is shown to converge quickly. This NP+LEMC technique can be used in systems with diffusion of charged or uncharged particles in complex three-dimensional geometries, including...
© 2019 The solid-state spherical diffusion equation with flux boundary conditions is a standard prob...
A strategy for a general electrochemical simulator is presented based on formulating the finite diff...
This thesis aims to develop new numerical and computational tools to study electrochemical transport...
We describe a hybrid simulation technique that uses the Nernst-Planck (NP) transport equation to com...
We describe a hybrid simulation technique that uses the Nernst-Planck (NP) transport equation to com...
We describe a new local grand canonical Monte Carlo method to treat fluids in pores in chemical equi...
Maggs and Rossetto [Phys. Rev. Lett. 88, 196402 (2002)] proposed a local lattice Monte Carlo algorit...
A numerical procedure based on the method of lines for time-dependent electrodiffusion transport has...
A dynamic lattice Monte Carlo (DLMC) simulation approach to the description of ion transport in diel...
Conventional approaches for simulating steady-state distributions of dilute particles under diffusiv...
AbstractProblems of charge-carrier transport from many different fields converge in mathematics, whe...
AbstractWe propose a simple microscopic model of electric conduction, and study transport phenomena ...
Abstract. We have developed efficient numerical algorithms for solving 3D steady-state Poisson-Nerns...
A technique is given for obtaining numerical solutions to the steady-state electrodiffusion equation...
This thesis aims to develop new numerical and computational tools to study electrochemical transport...
© 2019 The solid-state spherical diffusion equation with flux boundary conditions is a standard prob...
A strategy for a general electrochemical simulator is presented based on formulating the finite diff...
This thesis aims to develop new numerical and computational tools to study electrochemical transport...
We describe a hybrid simulation technique that uses the Nernst-Planck (NP) transport equation to com...
We describe a hybrid simulation technique that uses the Nernst-Planck (NP) transport equation to com...
We describe a new local grand canonical Monte Carlo method to treat fluids in pores in chemical equi...
Maggs and Rossetto [Phys. Rev. Lett. 88, 196402 (2002)] proposed a local lattice Monte Carlo algorit...
A numerical procedure based on the method of lines for time-dependent electrodiffusion transport has...
A dynamic lattice Monte Carlo (DLMC) simulation approach to the description of ion transport in diel...
Conventional approaches for simulating steady-state distributions of dilute particles under diffusiv...
AbstractProblems of charge-carrier transport from many different fields converge in mathematics, whe...
AbstractWe propose a simple microscopic model of electric conduction, and study transport phenomena ...
Abstract. We have developed efficient numerical algorithms for solving 3D steady-state Poisson-Nerns...
A technique is given for obtaining numerical solutions to the steady-state electrodiffusion equation...
This thesis aims to develop new numerical and computational tools to study electrochemical transport...
© 2019 The solid-state spherical diffusion equation with flux boundary conditions is a standard prob...
A strategy for a general electrochemical simulator is presented based on formulating the finite diff...
This thesis aims to develop new numerical and computational tools to study electrochemical transport...