In this article we present numerical methods for the approximation of incompressible flows. We have addressed three problems: the stationary Stokes’ problem, the transient Stokes’ problem, and the general motion of newtonian fluids. In the three cases a discretization is employed that does not require a mesh of the domain but uses maximum entropy approximation functions. To guarantee the robustness of the solution a stabilization technique is employed. The most general problem, that of the motion of newtonian fluids, is formulated in lagrangian form. The results presented verify that stabilized meshless methods can be a competitive alternative to other approached currently in use
A particle method is presented for the solution of the incompressible inviscid fluid flow equation u...
A fully Lagrangian nite element method for the analysis of Newtonian ows is developed. The approach...
This thesis makes two noteworthy contributions in the are of mesh-free methods: a Pseudo-Divergence-...
ResumenEn este artículo, presentamos métodos numéricos para resolver problemas de fluidos incompresi...
A meshless method is presented for the solution of the incompressible fluid flow equation using a la...
A meshless method is presented for the solution of the incompressible fluid flow equation using a la...
A meshless method is presented for the solution of the incompressible fluid flow equation using a la...
En este artículo, presentamos métodos numéricos para resolver problemas de fluidos incompresibles. T...
A stabilized meshfree Galerkin method is employed for the approximation of the incompressible Navier...
In part I of this work, meshfree Galerkin methods have been used for the approximation of the incomp...
A method is presented for the solution of the incompressible fluid flow equations using a lagrangian...
A fully Lagrangian finite element method for the analysis of Newtonian flows is developed. The appro...
A particle method is presented for the solution of the incompressible inviscid fluid flow equation...
This paper presents a stabilized finite element formulation for the incompressible Navier-Stokes equ...
Abstract This paper presents a stabilized finite element formulation for the incompressible Navier-S...
A particle method is presented for the solution of the incompressible inviscid fluid flow equation u...
A fully Lagrangian nite element method for the analysis of Newtonian ows is developed. The approach...
This thesis makes two noteworthy contributions in the are of mesh-free methods: a Pseudo-Divergence-...
ResumenEn este artículo, presentamos métodos numéricos para resolver problemas de fluidos incompresi...
A meshless method is presented for the solution of the incompressible fluid flow equation using a la...
A meshless method is presented for the solution of the incompressible fluid flow equation using a la...
A meshless method is presented for the solution of the incompressible fluid flow equation using a la...
En este artículo, presentamos métodos numéricos para resolver problemas de fluidos incompresibles. T...
A stabilized meshfree Galerkin method is employed for the approximation of the incompressible Navier...
In part I of this work, meshfree Galerkin methods have been used for the approximation of the incomp...
A method is presented for the solution of the incompressible fluid flow equations using a lagrangian...
A fully Lagrangian finite element method for the analysis of Newtonian flows is developed. The appro...
A particle method is presented for the solution of the incompressible inviscid fluid flow equation...
This paper presents a stabilized finite element formulation for the incompressible Navier-Stokes equ...
Abstract This paper presents a stabilized finite element formulation for the incompressible Navier-S...
A particle method is presented for the solution of the incompressible inviscid fluid flow equation u...
A fully Lagrangian nite element method for the analysis of Newtonian ows is developed. The approach...
This thesis makes two noteworthy contributions in the are of mesh-free methods: a Pseudo-Divergence-...