Numerical Implementation of Meshless Methods for Beam Problems
Victoria Elena Roșca, Vitor M.A. Leitão
Abstract
Open-access reader
Victoria Elena Roșca, Vitor M.A. Leitão
Abstract
Open-access reader
Abstract For solving a partial different equation by a numerical method, a possible alternative may be either to use a mesh method or a meshless method. A flexible computational procedure for solving 1D linear elastic beam problems is presented that currently uses two forms of approximation function (moving least squares and kernel approximation functions) and two types of formulations, namely the weak form and collocation technique, respectively, to reproduce Element Free Galerkin (EFG) and Smooth Particle Hydrodynamics (SPH) meshless methods. The numerical implementation for beam problems of these two formulations is discussed and numerical tests are presented to illustrate the difference between the formulations.
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Abstract For solving a partial different equation by a numerical method, a possible alternative may be either to use a mesh method or a meshless method. A flexible computational procedure for solving 1D linear elastic beam problems is presented that currently uses two forms of approximation function (moving least squares and kernel approximation functions) and two types of formulations, namely the weak form and collocation technique, respectively, to reproduce Element Free Galerkin (EFG) and Smooth Particle Hydrodynamics (SPH) meshless methods. The numerical implementation for beam problems of these two formulations is discussed and numerical tests are presented to illustrate the difference between the formulations.
Key concepts: Regularized meshless method, Meshfree methods, Moving least squares, Galerkin method, Smoothed-particle hydrodynamics, Collocation (remote sensing), Singular boundary method, Numerical analysis