Lagrange-Remap strategy for multi-material fluid-solid simulations using compressive limiters

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Authors: S. Guisset S. Guisset, Lucas Tallois, Arnaud Colaïtis, J. Breil
Cited by: 1
References: 32

Abstract

In the present work, the Lagrange-Remap strategy proposed in [1] is extended to multi-material fluid-solid simulations. Both hypo-elastic and hyper-elastic material models are considered to describe the mechanical behavior of the solids. In practice, the deviatoric stress tensor (for hypo-elastic materials) and the left Cauchy-Green tensor (for isotropic hyper-elastic materials) are remapped, while the use of compressive limiters effectively reduces numerical diffusion during the remapping step. The simplicity of this diffuse interface approach is emphasized in the context of multi-material fluid-solid simulations. A series of Lagrange-Remap test cases, involving both solids and fluids, are conducted and compared with reference Lagrangian simulations, demonstrating the robustness and accuracy of the overall numerical strategy.

Fields of Study & Subjects

Advanced Numerical Methods in Computational Mathematics Elasticity and Material Modeling Lattice Boltzmann Simulation Studies

Publication details

Journal / source
Computers & Mathematics with Applications
Publisher
Elsevier BV
Volume
217
Pages
379–401
Publication date
23 June 2026
Language
EN