CENN: Conservative energy method based on neural networks with subdomains for solving variational problems involving heterogeneous and complex geometries
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Abstract (arXiv)
We propose a conservative energy method based on neural networks with subdomains for solving variational problems (CENN), where the admissible function satisfying the essential boundary condition without boundary penalty is constructed by the radial basis function (RBF), particular solution neural network, and general neural network. The loss term is the potential energy, optimized based on the principle of minimum potential energy. The loss term at the interfaces has the lower order derivative compared to the strong form PINN with subdomains. The advantage of the proposed method is higher efficiency, more accurate, and less hyperparameters than the strong form PINN with subdomains. Another advantage of the proposed method is that it can apply to complex geometries based on the special construction of the admissible function. To analyze its performance, the proposed method CENN is used to model representative PDEs, the examples include strong discontinuity, singularity, complex boundary, non-linear, and heterogeneous problems. Furthermore, it outperforms other methods when dealing with heterogeneous problems.
Key facts. Cited by 10 papers in the map (data through 7 Oct 2026). Builds on 16 of its 50 references that are in the map. First posted on arXiv 25 Sep 2021.
Builds on
16 of 50 references.
References · 16
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4 more
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Citing papers per year: 2023: 4; 2024: 3; 2025: 2; 2026: 1.
10 papers.
- 2024Kolmogorov Arnold Informed neural network: A physics-informed deep learning framework for solving forward and inverse problems based on Kolmogorov Arnold Networkscited by 64
- 2023Mixed formulation of physics-informed neural networks for thermo-mechanically coupled systems and heterogeneous domainscited by 14
- 2025Transfer Learning in Physics-Informed Neural Networks: Full Fine-Tuning, Lightweight Fine-Tuning, and Low-Rank Adaptationcited by 14
- 2023Monte Carlo Neural PDE Solver for Learning PDEs via Probabilistic Representationcited by 11
- 2023BINN: A deep learning approach for computational mechanics problems based on boundary integral equationscited by 10
- 2023DCEM: A deep complementary energy method for solid mechanicscited by 5
- 2024Energy-based physics-informed neural network for frictionless contact problems under large deformationcited by 4
- 2025EquiNO: A Physics-Informed Neural Operator for Multiscale Simulationscited by 3
- 2024Gradient Flow Based Phase-Field Modeling Using Separable Neural Networkscited by 1
- 2026PG-KINN: A Physics-Informed Petrov-Galerkin Kolmogorov-Arnold Network for Solving Forward and Inverse PDEscited by 0
- 2026PG-KINN: A Physics-Informed Petrov-Galerkin Kolmogorov-Arnold Network for Solving Forward and Inverse PDEs22 Jul 2026
- 2025EquiNO: A Physics-Informed Neural Operator for Multiscale Simulations27 Mar 2025
- 2025Transfer Learning in Physics-Informed Neural Networks: Full Fine-Tuning, Lightweight Fine-Tuning, and Low-Rank Adaptation2 Feb 2025
- 2024Energy-based physics-informed neural network for frictionless contact problems under large deformation6 Nov 2024
- 2024Kolmogorov Arnold Informed neural network: A physics-informed deep learning framework for solving forward and inverse problems based on Kolmogorov Arnold Networks16 Jun 2024
- 2024Gradient Flow Based Phase-Field Modeling Using Separable Neural Networks9 May 2024
- 2023Monte Carlo Neural PDE Solver for Learning PDEs via Probabilistic Representation10 Feb 2023
- 2023Mixed formulation of physics-informed neural networks for thermo-mechanically coupled systems and heterogeneous domains9 Feb 2023
- 2023DCEM: A deep complementary energy method for solid mechanics3 Feb 2023
- 2023BINN: A deep learning approach for computational mechanics problems based on boundary integral equations11 Jan 2023