Cover Image for ML models suffer from overoptimism when applied to partial differential equations in computational physics
Cover Image for ML models suffer from overoptimism when applied to partial differential equations in computational physics
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ML models suffer from overoptimism when applied to partial differential equations in computational physics

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A key application of machine learning in computational physics is accelerating the solution of partial differential equations (PDEs). Machine-learning-based PDE solvers aim to produce accurate solutions more quickly than standard numerical methods, used as the baseline for comparison.


BuzzRobot guest, Nick McGreivy from Princeton University, reviewed the ML-for-PDE-solving literature and found that 79% (60/76) of articles claiming ML outperforms standard methods use weak baselines. He also noted widespread reporting biases, including outcome and publication biases.

Conclusion: ML-for-PDE-solving research is overoptimistic due to weak baselines and under-reported negative results.

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Presented by
BuzzRobot
AI research discussions
Hosted By
49 Went