SEA-PINN Enhances Physics-Informed Neural Networks with Attention Mechanism
Summary
SEA-PINN is a new architecture that integrates a Squeeze-Excitation-like attention mechanism into Physics-Informed Neural Networks (PINNs). This leads to highly stable initialization, reduced variance, and improved accuracy across various benchmark problems.
Why it matters
Improved stability and accuracy in PINNs can accelerate scientific discovery, engineering design, and complex system simulations by providing more reliable and efficient solutions to differential equations.
How to implement this in your domain
- 1Integrate the SEA-PINN module into existing PINN frameworks for improved stability and performance.
- 2Apply SEA-PINN to solve complex partial differential equations in your specific engineering or scientific domain.
- 3Benchmark SEA-PINN's performance against current PINN implementations for specific problems to assess its benefits.
- 4Explore combining SEA-PINN with other PINN enhancements for further performance gains in challenging scenarios.
Who benefits
Key takeaways
- SEA-PINN introduces a Squeeze-Excitation-like attention mechanism to PINNs.
- It provides highly stable initialization and reduced variance in PINN training.
- The architecture significantly improves accuracy on benchmark problems.
- SEA-PINN is a lightweight, plug-in module for robust physics-informed learning.
Original post by Yun-Fei Song, Long-Gang Pang, Fu-Peng Li, Jun-Jie Zhang
"arXiv:2606.19853v1 Announce Type: new Abstract: We introduce SEA-PINN, a novel architecture that incorporates a Squeeze-Excitation-like attention mechanism into physics-informed neural networks to dynamically recalibrate the importance of neurons across layers. A key feature of S…"
View on XOriginally posted by Yun-Fei Song, Long-Gang Pang, Fu-Peng Li, Jun-Jie Zhang on X · view source
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