Goal-oriented error estimation and mesh adaptivity in 3d elastoplasticity problems
Source abstract
Abstract
We propose a 3D adaptive method for plasticity problems based on goal-oriented error estimation, which computes the error with respect to a prescribed quantity of interest. It is a dual-based scheme which requires an adjoint problem. The computed element-wise errors at each load/displacement increment are utilized for the mesh adaptivity purpose. Mesh adaptivity procedure is performed based on refinement and coarsening by introducing hanging nodes in quadrilateral and hexahedral elements in 2d and 3d, respectively. Several numerical simulations are investigated and the results are compared with available analytical solutions, existing experimental data and results of mesh adaptivity based on other conventional error estimation methods.
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Research context
OpenAlex topics: Advanced Numerical Methods in Computational Mathematics · Numerical methods in engineering · Elasticity and Material Modeling
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References (45)
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