A High-order accurate finite difference scheme is derived for a non-linear soliton model of nerve signal propagation in axons. Boundary conditions yielding well-posed problems are suggested and included in the scheme using a penalty technique. Stability is shown using the summation-by-parts framework for a frozen parameter version of the non-linear problem
The nonlinear, core-conductor model of action potential propagation down axisymmetric nerve fibers i...
In this article, numerical study for the fractional Cable equation which is fundamental equations fo...
This work is focused on the modelling of signal propagations in myelinated axons to characterize the...
In this work, we consider numerical solutions of the FitzHugh–Nagumo system of equations describing ...
The aim of this paper is to determine the numerical solution of an equation which models the nerve c...
AbstractIn this paper, we describe a numerical approach based on finite difference method to solve a...
The Nagumo equation is an important nonlinear reaction-diffusion equation used to model the transmis...
The Hodgkin-Huxley model of the nerve axon describes excitation and propagation of the nerve impulse...
This paper describes 3D Finite Element modelling solutions for a segment of a nervous cell axon, whi...
After some reduction procedure made on the nonlinear evolution equation for nerve pulses, based on t...
This project studied two different ways of imposing boundary conditions weakly with the finite diffe...
NOTICE: this is the author’s version of a work that was accepted for publication in Applied Numerica...
AbstractThis paper describes moving variable mesh finite difference schemes to numerically solve the...
A novel approach for simulating potential propagation in neuronal branches with high accuracy is dev...
We consider certain approximation for determining the equation of motion for nerve signals by...
The nonlinear, core-conductor model of action potential propagation down axisymmetric nerve fibers i...
In this article, numerical study for the fractional Cable equation which is fundamental equations fo...
This work is focused on the modelling of signal propagations in myelinated axons to characterize the...
In this work, we consider numerical solutions of the FitzHugh–Nagumo system of equations describing ...
The aim of this paper is to determine the numerical solution of an equation which models the nerve c...
AbstractIn this paper, we describe a numerical approach based on finite difference method to solve a...
The Nagumo equation is an important nonlinear reaction-diffusion equation used to model the transmis...
The Hodgkin-Huxley model of the nerve axon describes excitation and propagation of the nerve impulse...
This paper describes 3D Finite Element modelling solutions for a segment of a nervous cell axon, whi...
After some reduction procedure made on the nonlinear evolution equation for nerve pulses, based on t...
This project studied two different ways of imposing boundary conditions weakly with the finite diffe...
NOTICE: this is the author’s version of a work that was accepted for publication in Applied Numerica...
AbstractThis paper describes moving variable mesh finite difference schemes to numerically solve the...
A novel approach for simulating potential propagation in neuronal branches with high accuracy is dev...
We consider certain approximation for determining the equation of motion for nerve signals by...
The nonlinear, core-conductor model of action potential propagation down axisymmetric nerve fibers i...
In this article, numerical study for the fractional Cable equation which is fundamental equations fo...
This work is focused on the modelling of signal propagations in myelinated axons to characterize the...