Explainable Synthesizability Prediction of Inorganic Crystal Polymorphs Using Large Language Models

We evaluate the ability of machine learning to predict whether a hypothetical crystal structure can be synthesized and explain those predictions to scientists. Fine-tuned large language models (LLMs) trained on a human-readable text description of the target crystal structure perform comparably to previous bespoke convolutional graph neural network methods, but better prediction quality can be achieved by training a positive-unlabeled learning model on a text-embedding representation of the structure. An LLM-based workflow can then be used to generate human-readable explanations for the types of factors governing synthesizability, extract the underlying physical rules, and assess the veracity of those rules. These explanations can guide chemists in modifying or optimizing non-synthesizable hypothetical structures to make them more feasible for materials design.

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Publication Details

Journal
Angewandte Chemie International Edition
Published
2025-02-13
DOI
https://doi.org/10.1002/anie.202423950
Citations
19
Primary Topic
Machine Learning in Materials Science
Type
article
Field-Weighted Citation Impact
9.84

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article

Explainable Synthesizability Prediction of Inorganic Crystal Polymorphs Using Large Language Models

Joshua Schrier, Yousung Jung, Seong-Min Kim
19 citations
Angewandte Chemie International Edition
Machine Learning in Materials Science
9.84
article

Explainable Synthesizability Prediction of Inorganic Crystal Polymorphs Using Large Language Models

Joshua Schrier, Yousung Jung, Seong-Min Kim
article en
19 citations

Abstract

We evaluate the ability of machine learning to predict whether a hypothetical crystal structure can be synthesized and explain those predictions to scientists. Fine-tuned large language models (LLMs) trained on a human-readable text description of the target crystal structure perform comparably to previous bespoke convolutional graph neural network methods, but better prediction quality can be achieved by training a positive-unlabeled learning model on a text-embedding representation of the structure. An LLM-based workflow can then be used to generate human-readable explanations for the types of factors governing synthesizability, extract the underlying physical rules, and assess the veracity of those rules. These explanations can guide chemists in modifying or optimizing non-synthesizable hypothetical structures to make them more feasible for materials design.

Angewandte Chemie International EditionVol. 64(19)
Seoul National University (KR), Korea Advanced Institute of Science and Technology (KR), Fordham University (US), National University (SD)
U.S. Department of Energy, Fordham University, Office of Science, Institute for Information and Communications Technology Promotion, Basic Energy Sciences, Los Alamos National Laboratory
Quality Education
Openalex Percentile: Top 1%
Machine Learning in Materials Science
9.84
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