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A linear-elasticity solver for higher-order space-time mesh deformation
Author(s) -
Laslo T. Diosady,
Scott M. Murman
Publication year - 2018
Publication title -
2018 aiaa aerospace sciences meeting
Language(s) - English
Resource type - Conference proceedings
DOI - 10.2514/6.2018-0919
Subject(s) - elasticity (physics) , solver , computer science , linear elasticity , deformation (meteorology) , mathematics , computational science , mathematical optimization , materials science , structural engineering , finite element method , engineering , composite material
A linear-elasticity approach is presented for the generation of meshes appropriate for a higher-order space-time discontinuous finite-element method. The equations of linearelasticity are discretized using a higher-order, spatially-continuous, finite-element method. Given an initial finite-element mesh, and a specified boundary displacement, we solve for the mesh displacements to obtain a higher-order curvilinear mesh. Alternatively, for moving-domain problems we use the linear-elasticity approach to solve for a temporally discontinuous mesh velocity on each time-slab and recover a continuous mesh deformation by integrating the velocity. The applicability of this methodology is presented for several benchmark test cases.

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