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April 30, 20260 citationsOpen Access

Scale-Invariant Quantum Machine Learning: Zero-Shot Transfer Across Molecular Dimensions via Information-Theoretic Relational Calculus

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MCMassimiliano Concas

Key Points

  • This research aims to enhance molecular energy predictions using a novel information-theoretic approach.
  • Developed an information-theoretic relational calculus for projecting molecular energies.
  • Utilized a lightweight XGBoost model trained on H₂ and tested zero-shot on LiH.
  • Focused on reducing absolute prediction error while addressing dimensionality drift.
  • Achieved a reduction in absolute prediction error by 80% using the trained model.
  • Successfully eliminated dimensionality drift without employing deep neural networks.

Abstract

This paper introduces an information-theoretic relational calculus that projects molecular energies onto a dimensionless phase space using the isolated informational potential of constituent atoms. Trained solely on H₂ and tested zero‑shot on LiH, a lightweight XGBoost model reduces absolute prediction error by 80%, eliminating dimensionality drift without deep neural networks.

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Cite This Study

Massimiliano Concas (2026) studied this question.

synapsesocial.com/papers/69f2f1be1e5f7920c638757dhttps://doi.org/10.5281/zenodo.19841528
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