PINNs-MPF: An Efficient Physics-Informed Machine Learning-based Solver for Multi-Phase-Field Simulations using Tensorflow

This paper introduces PINNs-MPF, a novel Machine Learning-based solver designed for Multi-Phase-Field (MPF) and diffuse interface simulations, offering innovative approaches to address complex challenges in addressing microstructure evolution in polycrystalline materials using Machine Learning. The framework not only surpasses current limitations in handling multi-phase problems but also allows for potential upscaling to tackle more intricate scenarios. Developed in Python, the related code leverages optimized libraries like TensorFlow, showcasing efficiency and potential scalability in materials science and engineering simulations. This framework, integrating advanced techniques such as multi-networking and training optimization, setting a new standard in predictive capabilities and understanding complex physical phenomena. • Efficient Multi-Phase Field Solver: Open-source Python tool using PINNs for complex phase simulations. • High Scalability: Optimized for large-scale problems with adaptive optimization and checkpointing. • Community Access: Available on GitHub and CodeOcean for reproducibility and collaboration.

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Publication Details

Journal
Software Impacts
Published
2025-05-02
DOI
https://doi.org/10.1016/j.simpa.2025.100753
Citations
1
Primary Topic
Model Reduction and Neural Networks
Type
article
Field-Weighted Citation Impact
1.32

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article

PINNs-MPF: An Efficient Physics-Informed Machine Learning-based Solver for Multi-Phase-Field Simulations using Tensorflow

Seifallah Fetni, Reza Darvishi Kamachali
1 citations
Software Impacts
Model Reduction and Neural Networks
1.32
article

PINNs-MPF: An Efficient Physics-Informed Machine Learning-based Solver for Multi-Phase-Field Simulations using Tensorflow

Seifallah Fetni, Reza Darvishi Kamachali
article en
1 citations

Abstract

This paper introduces PINNs-MPF, a novel Machine Learning-based solver designed for Multi-Phase-Field (MPF) and diffuse interface simulations, offering innovative approaches to address complex challenges in addressing microstructure evolution in polycrystalline materials using Machine Learning. The framework not only surpasses current limitations in handling multi-phase problems but also allows for potential upscaling to tackle more intricate scenarios. Developed in Python, the related code leverages optimized libraries like TensorFlow, showcasing efficiency and potential scalability in materials science and engineering simulations. This framework, integrating advanced techniques such as multi-networking and training optimization, setting a new standard in predictive capabilities and understanding complex physical phenomena. • Efficient Multi-Phase Field Solver: Open-source Python tool using PINNs for complex phase simulations. • High Scalability: Optimized for large-scale problems with adaptive optimization and checkpointing. • Community Access: Available on GitHub and CodeOcean for reproducibility and collaboration.

Software ImpactsVol. 24
Federal Institute For Materials Research and Testing (DE), University of Münster (DE)
Deutsche Forschungsgemeinschaft
Affordable and clean energy
Openalex Percentile: Top 20%
Model Reduction and Neural Networks
1.32
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PINNs-MPF: An Efficient Physics-Informed Machine Learning-based Solver for Multi-Phase-Field Simulations using Tensorflow — Seifallah Fetni, Reza Darvishi Kamachali · Software Impacts (2025) | TGRS Research Map | TGRS