A Simple, Scalable Large Deformation Solid Mechanics Implementation in the MOOSE Framework

This article describes a large deformation solid mechanics solver implemented as part of the freely available and open source MOOSE finite element simulation framework. The article documents the choices made in developing the solid mechanics framework and describes novel formulations for the gradient operator and constitutive modeling framework made to simplify implementations of different coordinate systems, stabilized gradient operators, and different constitutive model inputs and outputs. In the process, the article describes a new formulation that casts objective integration of the Cauchy stress as a linear transformation of the small stress rate. Finally, the article presents key implementation details and examines the parallel efficiency of the solid mechanics solver implemented in MOOSE. The implementation retains a good weak scaling efficiency beyond 1,000 parallel processes. The article includes a discussion of the factors limiting the parallel efficiency of implicit, large deformation solid mechanics codes on current high-performance computers, with the main current limitation being the scalability of the algebraic multigrid methods used to solve the linearized equilibrium equations.

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Publication Details

Journal
ACM Transactions on Mathematical Software
Published
2025-02-04
DOI
https://doi.org/10.1145/3716308
Citations
2
Primary Topic
Advanced Surface Polishing Techniques
Type
article
Field-Weighted Citation Impact
1.35
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article

A Simple, Scalable Large Deformation Solid Mechanics Implementation in the MOOSE Framework

Mark Messner, Tianchen Hu
2 citations
ACM Transactions on Mathematical Software
Advanced Surface Polishing Techniques
1.35
article

A Simple, Scalable Large Deformation Solid Mechanics Implementation in the MOOSE Framework

Mark Messner, Tianchen Hu
article en
2 citations

Abstract

This article describes a large deformation solid mechanics solver implemented as part of the freely available and open source MOOSE finite element simulation framework. The article documents the choices made in developing the solid mechanics framework and describes novel formulations for the gradient operator and constitutive modeling framework made to simplify implementations of different coordinate systems, stabilized gradient operators, and different constitutive model inputs and outputs. In the process, the article describes a new formulation that casts objective integration of the Cauchy stress as a linear transformation of the small stress rate. Finally, the article presents key implementation details and examines the parallel efficiency of the solid mechanics solver implemented in MOOSE. The implementation retains a good weak scaling efficiency beyond 1,000 parallel processes. The article includes a discussion of the factors limiting the parallel efficiency of implicit, large deformation solid mechanics codes on current high-performance computers, with the main current limitation being the scalability of the algebraic multigrid methods used to solve the linearized equilibrium equations.

ACM Transactions on Mathematical SoftwareVol. 51(1)
Argonne National Laboratory (US)
Openalex Percentile: Top 22%
Advanced Surface Polishing Techniques
1.35
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