The field of partial differential equations (PDEs) is experiencing significant advancements with the integration of neural networks and novel numerical methods. Recent developments have focused on improving the accuracy and efficiency of solving PDEs, particularly in complex domains and with highly oscillatory solutions. Graph neural networks and physics-informed neural networks (PINNs) have emerged as powerful tools for solving PDEs, offering improved performance over traditional numerical methods. Additionally, new numerical methods such as the finite expression method and the B-spline collocation method have been proposed to tackle challenging PDE problems. These innovations have far-reaching implications for various fields, including biophysics, materials science, and energy storage. Noteworthy papers include: Graph Neural Regularizers for PDE Inverse Problems, which introduces a framework for solving ill-posed inverse problems using graph neural networks; PINN Balls, which proposes a scalable and accurate method for training PINNs; and LieSolver, which leverages Lie symmetries to efficiently solve initial-boundary value problems. These advancements demonstrate the rapid progress being made in the field and highlight the potential for future breakthroughs.
Advances in Solving Partial Differential Equations with Neural Networks and Novel Numerical Methods
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A Rapid Physics-Informed Machine Learning Framework Based on Extreme Learning Machine for Inverse Stefan Problems
Graph Neural Network Assisted Genetic Algorithm for Structural Dynamic Response and Parameter Optimization
A Finite Element framework for bulk-surface coupled PDEs to solve moving boundary problems in biophysics