A local error estimation and adaptive meshing method developed by some of the authors for finite element analysis of 2D electrostatic and magnetostatic problems is now extended to 3D problems. The problems are formulated in terms of scalar potentials and discretized on a tetrahedral mesh using linear shape functions. Local error is estimated by approximately solving an independent differential problem in each tetrahedral element. The elements selected for refinement are subdivided by adding nodes inside the element, or along an edge, depending on their geometrical quality facto
International audienceA local error estimation and adaptive meshing method for finite element analys...
International audienceA local error estimation and adaptive meshing method for finite element analys...
We consider an implicit a posteriori error estimation technique for the adaptive solution of the Max...
A local error estimation and adaptive meshing method developed by some of the authors for finite ele...
An adaptive FEM for 3D magnetostatic problems involving non-linear materials and permanent magnets i...
A local error estimation and adaptive meshing method developed by the authors for finite element ana...
An a posteriori error estimate method, the element residual method (ERM), was investigated, and used...
International audienceIn finite element computations, the choice of the mesh is crucial to obtain ac...
In this paper, an error estimator is used to control the quality of finite element solution in line...
In this paper, an error estimator is used to control the quality of finite element solution in line...
Mesh quality strongly affects the solution accuracy in electromagnetic finite-element analysis. Henc...
For the adaptive solution of the Maxwell equations on three-dimensional domains with N´ed´elec edge ...
International audienceA local error estimation and adaptive meshing method for finite element analys...
International audienceA local error estimation and adaptive meshing method for finite element analys...
International audienceA local error estimation and adaptive meshing method for finite element analys...
International audienceA local error estimation and adaptive meshing method for finite element analys...
International audienceA local error estimation and adaptive meshing method for finite element analys...
We consider an implicit a posteriori error estimation technique for the adaptive solution of the Max...
A local error estimation and adaptive meshing method developed by some of the authors for finite ele...
An adaptive FEM for 3D magnetostatic problems involving non-linear materials and permanent magnets i...
A local error estimation and adaptive meshing method developed by the authors for finite element ana...
An a posteriori error estimate method, the element residual method (ERM), was investigated, and used...
International audienceIn finite element computations, the choice of the mesh is crucial to obtain ac...
In this paper, an error estimator is used to control the quality of finite element solution in line...
In this paper, an error estimator is used to control the quality of finite element solution in line...
Mesh quality strongly affects the solution accuracy in electromagnetic finite-element analysis. Henc...
For the adaptive solution of the Maxwell equations on three-dimensional domains with N´ed´elec edge ...
International audienceA local error estimation and adaptive meshing method for finite element analys...
International audienceA local error estimation and adaptive meshing method for finite element analys...
International audienceA local error estimation and adaptive meshing method for finite element analys...
International audienceA local error estimation and adaptive meshing method for finite element analys...
International audienceA local error estimation and adaptive meshing method for finite element analys...
We consider an implicit a posteriori error estimation technique for the adaptive solution of the Max...