A generalized finite element method for linear thermoelasticity
Axel M{\aa}lqvist, Anna Persson

TL;DR
This paper introduces a generalized finite element method for linear thermoelasticity with multiscale coefficients, achieving optimal convergence rates independent of coefficient derivatives, validated by numerical tests.
Contribution
It extends local orthogonal decomposition techniques to thermoelastic systems, providing a robust and accurate numerical method for multiscale problems.
Findings
Optimal order convergence proved
Method is independent of coefficient derivatives
Numerical examples confirm theoretical results
Abstract
We propose and analyze a generalized finite element method designed for linear quasistatic thermoelastic systems with spatial multiscale coefficients. The method is based on the local orthogonal decomposition technique introduced by M{\aa}lqvist and Peterseim (Math. Comp., 83(290): 2583--2603, 2014). We prove convergence of optimal order, independent of the derivatives of the coefficients, in the spatial -norm. The theoretical results are confirmed by numerical examples.
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Taxonomy
TopicsAdvanced Mathematical Modeling in Engineering · Composite Material Mechanics · Advanced Numerical Methods in Computational Mathematics
