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3-D Inorganic Crystal Structure Generation and Property Prediction via Representation Learning
Author(s) -
Callum J. Court,
Batuhan Yildirim,
Apoorv Jain,
Jacqueline M. Cole
Publication year - 2020
Publication title -
journal of chemical information and modeling
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 1.24
H-Index - 160
eISSN - 1549-960X
pISSN - 1549-9596
DOI - 10.1021/acs.jcim.0c00464
Subject(s) - autoencoder , ternary operation , representation (politics) , generative grammar , generative model , pipeline (software) , binary number , crystal (programming language) , property (philosophy) , computer science , materials science , crystal structure prediction , artificial intelligence , deep learning , crystal structure , crystallography , mathematics , chemistry , philosophy , arithmetic , epistemology , politics , political science , law , programming language
Generative models have been successfully used to synthesize completely novel images, text, music, and speech. As such, they present an exciting opportunity for the design of new materials for functional applications. So far, generative deep-learning methods applied to molecular and drug discovery have yet to produce stable and novel 3-D crystal structures across multiple material classes. To that end, we, herein, present an autoencoder-based generative deep-representation learning pipeline for geometrically optimized 3-D crystal structures that simultaneously predicts the values of eight target properties. The system is highly general, as demonstrated through creation of novel materials from three separate material classes: binary alloys, ternary perovskites, and Heusler compounds. Comparison of these generated structures to those optimized via electronic-structure calculations shows that our generated materials are valid and geometrically optimized.

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