An adaptive grid technique for use in the solution of multi-dimensional time-dependent PDEs is applied to several magnetohydrodynamic model problems. The technique employs the method-of-lines and can be viewed both in a continuous and semi-discrete setting. By using an equidistribution principle, it has the ability to track individual features of the physical solutions in the developing plasma ows. Moreover, it can be shown that the underlying grid varies smoothly in time and space. The results of several numerical experiments are presented which cover many aspects typifying nonlinear magneto- uid dynamics
Abstract—A 3-D parallel adaptive mesh refinement (AMR) scheme is described for solving the partial-d...
We have developed a modern code to solve the magneto-hydrodynamic (MHD) or hydrodynamic (HD) equatio...
Summary. Computational study of the macroscopic stability of plasmas is a challenging multi-scale pr...
An adaptive grid technique for use in the solution of multi-dimensional time-dependent PDEs is appli...
In many plasma physical and astrophysical problems, both linear and nonlinear effects can lead to gl...
We present a new adaptive multiresoltion method for the numerical simulation of ideal magn...
International audienceWe present an adaptive multiresolution method for the numerical simulation of ...
We present an adaptive multiresolution method for the numerical simulation of ideal magnetohydrodyna...
Several methods are discussed for integrating the magnetohydrodynamic (MHD) equations in tokamak sys...
International audienceMagneto hydrodynamics is an important tool to study the dynamics of Space Phys...
Abstract: This preprint presents a method for solving the ideal magnetohydrodynamics equat...
A solution-adaptive scheme for solving the partial differential equations governing gas dynamics and...
We present an algorithm for simulating the equations of ideal magnetohydrodynamics and other systems...
This paper develops an adaptive moving mesh method for two-dimensional ideal relativistic magnetohyd...
Peer Reviewedhttp://deepblue.lib.umich.edu/bitstream/2027.42/77232/1/AIAA-1999-3273-200.pd
Abstract—A 3-D parallel adaptive mesh refinement (AMR) scheme is described for solving the partial-d...
We have developed a modern code to solve the magneto-hydrodynamic (MHD) or hydrodynamic (HD) equatio...
Summary. Computational study of the macroscopic stability of plasmas is a challenging multi-scale pr...
An adaptive grid technique for use in the solution of multi-dimensional time-dependent PDEs is appli...
In many plasma physical and astrophysical problems, both linear and nonlinear effects can lead to gl...
We present a new adaptive multiresoltion method for the numerical simulation of ideal magn...
International audienceWe present an adaptive multiresolution method for the numerical simulation of ...
We present an adaptive multiresolution method for the numerical simulation of ideal magnetohydrodyna...
Several methods are discussed for integrating the magnetohydrodynamic (MHD) equations in tokamak sys...
International audienceMagneto hydrodynamics is an important tool to study the dynamics of Space Phys...
Abstract: This preprint presents a method for solving the ideal magnetohydrodynamics equat...
A solution-adaptive scheme for solving the partial differential equations governing gas dynamics and...
We present an algorithm for simulating the equations of ideal magnetohydrodynamics and other systems...
This paper develops an adaptive moving mesh method for two-dimensional ideal relativistic magnetohyd...
Peer Reviewedhttp://deepblue.lib.umich.edu/bitstream/2027.42/77232/1/AIAA-1999-3273-200.pd
Abstract—A 3-D parallel adaptive mesh refinement (AMR) scheme is described for solving the partial-d...
We have developed a modern code to solve the magneto-hydrodynamic (MHD) or hydrodynamic (HD) equatio...
Summary. Computational study of the macroscopic stability of plasmas is a challenging multi-scale pr...