MilsPD: a lightweight multiphysics-integrated peridynamics solver

Abstract This paper presents MilsPD, a highly efficient multiphysics-integrated peridynamics (PD) solver designed for fracture mechanics applications. It addresses a key computational challenge in the field: the expensive simulation of large-scale multiphysics problems involving evolving fractures and fluid–solid interactions. Central to its performance is a set of fused multiphysics algorithms that update both coupled thermo-mechanical and thermo-hydrodynamic governing equations in optimized passes over material points. Using massive parallelism, our GPU implementation achieves speedups exceeding 1200 $$\times $$ relative to the leading CPU-based codes. We demonstrate the practical utility and superior performance of MilsPD by simulating the large-scale quenching process and formation of columnar joints, a task that remains computationally infeasible for the existing CPU-based multiphysics PD approach. MilsPD thus provides a robust new framework that significantly enhances the capability for high-fidelity failure analysis on previously intractable problems.

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Publication Details

Journal
Engineering With Computers
Published
2026-10-06
DOI
https://doi.org/10.1007/s00366-026-02422-1
Primary Topic
Numerical methods in engineering
Type
article
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article

MilsPD: a lightweight multiphysics-integrated peridynamics solver

Changyi Yang, Jidong Zhao, Yibo Ma, Fan Zhu et al.
Engineering With Computers
Numerical methods in engineering
article

MilsPD: a lightweight multiphysics-integrated peridynamics solver

Changyi Yang, Jidong Zhao, Yibo Ma, Fan Zhu, Moreen Ho
article en

Abstract

Abstract This paper presents MilsPD, a highly efficient multiphysics-integrated peridynamics (PD) solver designed for fracture mechanics applications. It addresses a key computational challenge in the field: the expensive simulation of large-scale multiphysics problems involving evolving fractures and fluid–solid interactions. Central to its performance is a set of fused multiphysics algorithms that update both coupled thermo-mechanical and thermo-hydrodynamic governing equations in optimized passes over material points. Using massive parallelism, our GPU implementation achieves speedups exceeding 1200 $$\times $$ relative to the leading CPU-based codes. We demonstrate the practical utility and superior performance of MilsPD by simulating the large-scale quenching process and formation of columnar joints, a task that remains computationally infeasible for the existing CPU-based multiphysics PD approach. MilsPD thus provides a robust new framework that significantly enhances the capability for high-fidelity failure analysis on previously intractable problems.

Engineering With ComputersVol. 42(6)
Openalex Percentile: Top 22%
Numerical methods in engineering
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MilsPD: a lightweight multiphysics-integrated peridynamics solver — Changyi Yang, Jidong Zhao, et al. · Engineering With Computers (2026) | TGRS Research Map | TGRS