[Abstract] We extend the applicability of the augmented dual-mixed method introduced recently in Gatica (2007), Gatica et al. (2009) to the problem of linear elasticity with mixed boundary conditions. The method is based on the Hellinger–Reissner principle and the symmetry of the stress tensor is imposed in a weak sense. The Neumann boundary condition is prescribed in the finite element space. Then, suitable Galerkin least-squares type terms are added in order to obtain an augmented variational formulation which is coercive in the whole space. This allows to use any finite element subspaces to approximate the displacement, the Cauchy stress tensor and the rotation
AbstractWe study a dual mixed formulation of the elasticity system in a polygonal domain of the plan...
This paper exploits the concept of stabilized finite element methods to formulate stable mixed stres...
AbstractIn the Hellinger–Reissner formulation for linear elasticity, both the displacement u and the...
We extend the applicability of the augmented dual-mixed method introduced recently in Gatica (2007),...
We extend the applicability of the augmented dual-mixed method introduced recently in Gatica (2007),...
We present a new stabilized mixed finite element method for the linear elasticity problem in $\mathb...
We present a new stabilized mixed finite element method for the linear elasticity problem in $\mathb...
[Abstract] We develop a residual-based a posteriori error analysis for the augmented mixed methods i...
We introduced a new augmented variational formulation for the elasticity problem in the plane that i...
AbstractWe study a dual mixed formulation of the elasticity system in a polygonal domain of the plan...
AbstractIn this paper we introduce and analyze a new augmented mixed finite element method for linea...
AbstractIn this paper we introduce and analyze a new augmented mixed finite element method for linea...
We consider mixed finite element methods for linear elasticity based on the Hellinger-Reissner varia...
Abstract: We study a dual mixed formulation of the elasticity system in a polygonal domain of the pl...
[Abstract] In this paper we unify the derivation of finite element subspaces guaranteeing unique sol...
AbstractWe study a dual mixed formulation of the elasticity system in a polygonal domain of the plan...
This paper exploits the concept of stabilized finite element methods to formulate stable mixed stres...
AbstractIn the Hellinger–Reissner formulation for linear elasticity, both the displacement u and the...
We extend the applicability of the augmented dual-mixed method introduced recently in Gatica (2007),...
We extend the applicability of the augmented dual-mixed method introduced recently in Gatica (2007),...
We present a new stabilized mixed finite element method for the linear elasticity problem in $\mathb...
We present a new stabilized mixed finite element method for the linear elasticity problem in $\mathb...
[Abstract] We develop a residual-based a posteriori error analysis for the augmented mixed methods i...
We introduced a new augmented variational formulation for the elasticity problem in the plane that i...
AbstractWe study a dual mixed formulation of the elasticity system in a polygonal domain of the plan...
AbstractIn this paper we introduce and analyze a new augmented mixed finite element method for linea...
AbstractIn this paper we introduce and analyze a new augmented mixed finite element method for linea...
We consider mixed finite element methods for linear elasticity based on the Hellinger-Reissner varia...
Abstract: We study a dual mixed formulation of the elasticity system in a polygonal domain of the pl...
[Abstract] In this paper we unify the derivation of finite element subspaces guaranteeing unique sol...
AbstractWe study a dual mixed formulation of the elasticity system in a polygonal domain of the plan...
This paper exploits the concept of stabilized finite element methods to formulate stable mixed stres...
AbstractIn the Hellinger–Reissner formulation for linear elasticity, both the displacement u and the...