mlsanityData to 14 Oct 2026

Is machine learning good or bad for the natural sciences?

arXiv 2405.18095 ↗First posted 28 May 2024stat.ML astro-ph.IM cs.LGcited by 4

Not on the map. Why?

Abstract (arXiv)

Machine learning (ML) methods are having a huge impact across all of the sciences. However, ML has a strong ontology - in which only the data exist - and a strong epistemology - in which a model is considered good if it performs well on held-out training data. These philosophies are in strong conflict with both standard practices and key philosophies in the natural sciences. Here we identify some locations for ML in the natural sciences at which the ontology and epistemology are valuable. For example, when an expressive machine learning model is used in a causal inference to represent the effects of confounders, such as foregrounds, backgrounds, or instrument calibration parameters, the model capacity and loose philosophy of ML can make the results more trustworthy. We also show that there are contexts in which the introduction of ML introduces strong, unwanted statistical biases. For one, when ML models are used to emulate physical (or first-principles) simulations, they amplify confirmation biases. For another, when expressive regressions are used to label datasets, those labels cannot be used in downstream joint or ensemble analyses without taking on uncontrolled biases. The question in the title is being asked of all of the natural sciences; that is, we are calling on the scientific communities to take a step back and consider the role and value of ML in their fields; the (partial) answers we give here come from the particular perspective of physics.

Key facts. Cited by 4 papers in the map (data through 14 Oct 2026). Builds on 22 of its 75 references that are in the map. First posted on arXiv 28 May 2024.

Builds on

22 of 75 references.

References · 22

  1. 2017Attention Is All You Needcited by 60,361
  2. 2014Explaining and Harnessing Adversarial Examplescited by 7,364
  3. 2021On the Opportunities and Risks of Foundation Modelscited by 4,033
  4. 2021Geometric Deep Learning: Grids, Groups, Graphs, Geodesics, and Gaugescited by 1,167
  5. 2018Reconciling modern machine learning practice and the bias-variance trade-offcited by 927
  6. 2017Ensemble Adversarial Training: Attacks and Defensescited by 840
  7. 2019Benign Overfitting in Linear Regressioncited by 549
  8. 2019AI Feynman: a Physics-Inspired Method for Symbolic Regressioncited by 548
  9. 2019The frontier of simulation-based inferencecited by 502
  10. 2020Discovering Symbolic Models from Deep Learning with Inductive Biasescited by 344
  11. 2018Sequential Neural Likelihood: Fast Likelihood-free Inference with Autoregressive Flowscited by 221
  12. 2019Explainable Machine Learning for Scientific Insights and Discoveriescited by 166
10 more
  1. 2019What Can Neural Networks Reason About?cited by 159
  2. 2021Scalars are universal: Equivariant machine learning, structured like classical physicscited by 127
  3. 2023Artificial Intelligence for Science in Quantum, Atomistic, and Continuum Systemscited by 121
  4. 2017A Tutorial on Kernel Density Estimation and Recent Advancescited by 101
  5. 2015Approximating Likelihood Ratios with Calibrated Discriminative Classifierscited by 90
  6. 2018Conditional molecular design with deep generative modelscited by 44
  7. 2022On the Power of Foundation Modelscited by 37
  8. 2022Dimensionless machine learning: Imposing exact units equivariancecited by 17
  9. 2022Translation and Rotation Equivariant Normalizing Flow (TRENF) for Optimal Cosmological Analysiscited by 11
  10. 2023Towards fully covariant machine learningcited by 10

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Citing papers per year: 2025: 2; 2026: 2.

4 papers.