Pushing the frontiers of materials design via high-throughput precipitate informatics

Materials design often faces an exploration blind spot where trial-and-error methods are inefficient and data-driven approaches struggle to discover new precipitate phases. Here, we propose High-Throughput Precipitate Informatics (HTPI), integrating physics-driven discovery, data-driven optimization, thermodynamic validation, and experimental verification. HTPI screens over 2 million crystallographic combinations within 2 min and identifies a previously unreported AlLiSi phase as a promising nanoscale precipitate in the age-hardening-blind Al-Si system. Machine-learning-guided Al-0.25Si-0.2Li (-0.2Mg) alloys exhibit pronounced age hardening, demonstrating HTPI as an extendable route for precipitate discovery across diverse alloy systems.

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Publication Details

Journal
Materials Research Letters
Published
2026-11-02
DOI
https://doi.org/10.1080/21663831.2026.2739243
Primary Topic
Machine Learning in Materials Science
Type
article
Field-Weighted Citation Impact
0.00

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article

Pushing the frontiers of materials design via high-throughput precipitate informatics

Zi-Lin Li, Ming-Le You, Fu‐Zhi Dai, Zhang‐Zhi Shi et al.
Materials Research Letters
Machine Learning in Materials Science
article

Pushing the frontiers of materials design via high-throughput precipitate informatics

Zi-Lin Li, Ming-Le You, Fu‐Zhi Dai, Zhang‐Zhi Shi, Hao Li, Wei Gou, Xin-Fu Gu, Lu-Ning Wang, Xiang-Hui Wu
article en

Abstract

Materials design often faces an exploration blind spot where trial-and-error methods are inefficient and data-driven approaches struggle to discover new precipitate phases. Here, we propose High-Throughput Precipitate Informatics (HTPI), integrating physics-driven discovery, data-driven optimization, thermodynamic validation, and experimental verification. HTPI screens over 2 million crystallographic combinations within 2 min and identifies a previously unreported AlLiSi phase as a promising nanoscale precipitate in the age-hardening-blind Al-Si system. Machine-learning-guided Al-0.25Si-0.2Li (-0.2Mg) alloys exhibit pronounced age hardening, demonstrating HTPI as an extendable route for precipitate discovery across diverse alloy systems.

Materials Research Letters
Liaoning Academy of Materials (CN), University of Science and Technology Beijing (CN)
Beijing Municipal Science and Technology Commission
Openalex Percentile: Top 31%
Machine Learning in Materials Science
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