A Parallel Variational Integrator for Simulating Dynamics of Large‐Scale Geometrically Exact Beam Systems on SE(3)

ABSTRACT An efficient MPI‐based parallel algorithm that preserves geometric structure is proposed, utilizing the field theory variational integrator (FTVI). The FTVI employs space‐time finite elements for geometrically exact beams formulated on the Lie group SE(3), and the formulation has been validated to be naturally free of shear locking. Simulation results demonstrate that the FTVI offers good numerical convergence, and excellent long‐term energy behavior. To further improve computational efficiency for large‐scale simulations, an MPI (message passing interface)‐based FTVI parallel algorithm is developed, utilizing the domain decomposition technique. Finally, a flexible cable net system with tens of thousands of degrees of freedom is given to validate the proposed MPI‐based FTVI parallel algorithm, which includes reduced computational complexity, enhanced effectiveness and energy conservation.

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Publication Details

Journal
International Journal for Numerical Methods in Engineering
Published
2026-01-20
DOI
https://doi.org/10.1002/nme.70249
Primary Topic
Numerical methods for differential equations
Type
article
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article

A Parallel Variational Integrator for Simulating Dynamics of Large‐Scale Geometrically Exact Beam Systems on SE(3)

Ziheng Huang, Ju Chen, Renhui Yi, Qiang Tian
International Journal for Numerical Methods in Engineering
Numerical methods for differential equations
article

A Parallel Variational Integrator for Simulating Dynamics of Large‐Scale Geometrically Exact Beam Systems on SE(3)

Ziheng Huang, Ju Chen, Renhui Yi, Qiang Tian
article en

Abstract

ABSTRACT An efficient MPI‐based parallel algorithm that preserves geometric structure is proposed, utilizing the field theory variational integrator (FTVI). The FTVI employs space‐time finite elements for geometrically exact beams formulated on the Lie group SE(3), and the formulation has been validated to be naturally free of shear locking. Simulation results demonstrate that the FTVI offers good numerical convergence, and excellent long‐term energy behavior. To further improve computational efficiency for large‐scale simulations, an MPI (message passing interface)‐based FTVI parallel algorithm is developed, utilizing the domain decomposition technique. Finally, a flexible cable net system with tens of thousands of degrees of freedom is given to validate the proposed MPI‐based FTVI parallel algorithm, which includes reduced computational complexity, enhanced effectiveness and energy conservation.

International Journal for Numerical Methods in EngineeringVol. 127(2)
Liaoning University (CN), Beijing Institute of Technology (CN)
Affordable and clean energy
Openalex Percentile: Top 79%
Numerical methods for differential equations
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