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Posted: 2025-05-17 09:41:30 UTC

This article contains some claims that are falsified. While not everything in the article is false, please proceed with extreme caution and verify any critical information independently.
This article contains some claims that are falsified. While not everything in the article is false, please proceed with extreme caution and verify any critical information independently.
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2025-05-17 09:41:50 UTC
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This paper introduces neural thermodynamic laws, demonstrating how thermodynamic concepts naturally emerge in language model training. It presents a minimal river-valley model to produce experimentally testable predictions, studying fast and slow dynamics separately. The research establishes the equipartition theorem, computes the number of valley directions in language models, and explores the annealing process and Fourier's conduction law. It identifies that the learning rate has three roles: controlling temperature, entropic force, and time scale, and suggests future work in designing algorithms inspired by these insights to make LLM training more efficient.
Introduces neural thermodynamic laws in language model training.
Presents a minimal river-valley model for testable predictions.
Establishes the equipartition theorem and computes valley directions in LLMs.
Explores the annealing process and Fourier's conduction law.
Identifies the multiple roles of the learning rate in training.
Understanding the complex roles of the learning rate in controlling temperature, entropic force, and time scale.
Designing algorithms inspired by thermodynamic insights to improve LLM training efficiency.