ASUGNN: an asymmetric-unit-based graph neural network for crystal property prediction

Material properties can often be derived directly from fundamental equations governing electron behavior. In this study, we present an open-source asymmetric-unit-based graph neural network designed to capture atomic patterns and their corresponding electron distributions. By coarse-graining sites belonging to conjugate subgroups and analyzing reciprocal space through powder X-ray diffraction patterns, our model predicts key physical properties, including formation energy, band gap, bulk modulus and metal/non-metal classification. Our method demonstrates exceptional predictive accuracy for properties calculated using density functional theory across the Materials Project dataset. Our approach is compared with state-of-the-art models and exhibits impressively low error rates in zero-shot predictions.

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Publication Details

Journal
Journal of Applied Crystallography
Published
2024-12-24
DOI
https://doi.org/10.1107/s1600576724011336
Citations
1
Primary Topic
Machine Learning in Materials Science
Type
article
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0.12
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article

ASUGNN: an asymmetric-unit-based graph neural network for crystal property prediction

Luke K. Davis, Daniel R. Anderson, Bin Cao
1 citations
Journal of Applied Crystallography
Machine Learning in Materials Science
0.12
article

ASUGNN: an asymmetric-unit-based graph neural network for crystal property prediction

Luke K. Davis, Daniel R. Anderson, Bin Cao
article en
1 citations

Abstract

Material properties can often be derived directly from fundamental equations governing electron behavior. In this study, we present an open-source asymmetric-unit-based graph neural network designed to capture atomic patterns and their corresponding electron distributions. By coarse-graining sites belonging to conjugate subgroups and analyzing reciprocal space through powder X-ray diffraction patterns, our model predicts key physical properties, including formation energy, band gap, bulk modulus and metal/non-metal classification. Our method demonstrates exceptional predictive accuracy for properties calculated using density functional theory across the Materials Project dataset. Our approach is compared with state-of-the-art models and exhibits impressively low error rates in zero-shot predictions.

Journal of Applied CrystallographyVol. 58(1)
Shanghai International Studies University (CN), Guangzhou Institute of Advanced Technology (CN), University of Hong Kong (HK)
Sustainable cities and communities
Openalex Percentile: Top 57%
Machine Learning in Materials Science
0.12
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