Publication date: Oct 10, 2023
This study combines machine learning (ML) and high-throughput calculations to uncover new ternary electrides in the A2BC2 family of compounds with the P4/mbm space group. Starting from a library of 214 known A2BC2 phases, density-functional theory calculations were used to compute the maximum value of the electron localization function, indicating that 42 are potential electrides. A model was then trained on this dataset and used to predict the electride behaviour of 14,437 hypothetical compounds generated by structural prototyping. Then, the stability and electride features of the 1254 electride candidates predicted by the model were carefully checked by high-throughput calculations.
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File name | Size | Description |
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README.txt
MD5md5:81ae6703c57b134554f9c76a9f6a7e90
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266 Bytes | README |
data.csv
MD5md5:24c8aa48b7bca9c28d27ef7d7f5a79c5
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5.0 KiB | Please see the attached README. |
optimade.yaml
MD5md5:7c4bd9ebe96a687274bfab555f227bfe
Go to the OPTIMADE API
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1008 Bytes | OPTIMADE integration config file |
raw.tar.gz
MD5md5:ccc0c64b527d8a6ba5eefbeb4c912e57
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328.2 MiB | Raw data before processing. |
structures.tar.gz
MD5md5:566a89ac004f37149e6431a88500cbf0
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19.6 KiB | Archive of structural data. |
2023.10 (version v2) | Oct 17, 2023 | DOI10.24435/materialscloud:cf-mp |
2023.9 (version v1) [This version] | Oct 10, 2023 | DOI10.24435/materialscloud:eq-8f |