Development of a TaN-Ce Machine Learning Potential and Its Application to Solid–Liquid Interface Simulations

This study develops a machine learning potential (MLP) based on the Moment Tensor Potential (MTP) method for the TaN-Ce system. This potential is employed to investigate the interfacial structure and wetting behavior between liquid Ce and solid TaN. Molecular dynamics (MDs) simulations reveal that liquid Ce exhibits significant wetting on the TaN surface at high temperatures. The interfacial region undergoes pre-melting and component interdiffusion, forming an amorphous transition layer. Nitrogen atoms display high diffusivity, leading to surface mass loss, while tantalum atoms demonstrate excellent thermal stability and penetration resistance. These findings provide theoretical support for the design of interfacial materials and corrosion control in high-temperature metallurgy.

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Publication Details

Journal
Metals
Published
2025-08-30
DOI
https://doi.org/10.3390/met15090972
Primary Topic
Machine Learning in Materials Science
Type
article
Field-Weighted Citation Impact
0.00

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article

Development of a TaN-Ce Machine Learning Potential and Its Application to Solid–Liquid Interface Simulations

Xuming Lv, Jianfeng Cai, Bowen Huang, Yunhan Zhang et al.
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Metals
Machine Learning in Materials Science
article

Development of a TaN-Ce Machine Learning Potential and Its Application to Solid–Liquid Interface Simulations

Xuming Lv, Jianfeng Cai, Bowen Huang, Yunhan Zhang, Hongjian Chen
article en

Abstract

This study develops a machine learning potential (MLP) based on the Moment Tensor Potential (MTP) method for the TaN-Ce system. This potential is employed to investigate the interfacial structure and wetting behavior between liquid Ce and solid TaN. Molecular dynamics (MDs) simulations reveal that liquid Ce exhibits significant wetting on the TaN surface at high temperatures. The interfacial region undergoes pre-melting and component interdiffusion, forming an amorphous transition layer. Nitrogen atoms display high diffusivity, leading to surface mass loss, while tantalum atoms demonstrate excellent thermal stability and penetration resistance. These findings provide theoretical support for the design of interfacial materials and corrosion control in high-temperature metallurgy.

MetalsVol. 15(9)
Hunan University (CN), Tianjin Research Institute of Water Transport Engineering (CN)
National Key Research and Development Program of China, National Supercomputing Center, Korea Institute of Science and Technology Information
Openalex Percentile: Top 82%
Machine Learning in Materials Science
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