Martensite Start Temperature Modeling via Artificial Neural Network Model

The martensite start temperature (M s ) of steels plays an important role in the formulation of heat‐treatment processes. Therefore, it is of great practical importance to predict M s accurately and rapidly. In the present work, machine learning (ML) methods are used to model M s based on the M s data of 1177 steels. Moreover, its generalization performance is verified using fivefold cross validation. Three different back‐propagation (BP) neural network algorithms (genetic algorithm [GA], particle swarm optimization, mind evolutionary algorithm) are used for optimal model selection. The results indicate that, among the three BP neural network algorithms, the GA–BP model has the highest prediction accuracy on the test set. The performances of GA–BP, Thermal–Calc, and JMatPro in predicting the M s of medium‐ and low‐carbon steels and high‐carbon steels are analyzed using an unknown dataset. The results show that the GA–BP model has strong generalization ability and can predict M s relatively accurately. The influence of alloying elements on M s is analyzed using the GA–BP model and the shapley additive explanation method, which provides strategies for studying the microstructure evolution of steel or optimizing the heat‐treatment process.

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Publication Details

Journal
steel research international
Published
2025-05-26
DOI
https://doi.org/10.1002/srin.202400948
Primary Topic
Metallurgical Processes and Thermodynamics
Type
article
Field-Weighted Citation Impact
0.00

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article

Martensite Start Temperature Modeling via Artificial Neural Network Model

Xiaochun Lv, Boyuan Cheng, Kun Xu, Qing Qu et al.
3 links
steel research international
Metallurgical Processes and Thermodynamics
article

Martensite Start Temperature Modeling via Artificial Neural Network Model

Xiaochun Lv, Boyuan Cheng, Kun Xu, Qing Qu, Yazhen Jiang, Jinglei Lv, Hao Wang, Wei Chen, Biao Zhang, Jialun Li, Qing Zhang, Xiao Guo
article en

Abstract

The martensite start temperature (M s ) of steels plays an important role in the formulation of heat‐treatment processes. Therefore, it is of great practical importance to predict M s accurately and rapidly. In the present work, machine learning (ML) methods are used to model M s based on the M s data of 1177 steels. Moreover, its generalization performance is verified using fivefold cross validation. Three different back‐propagation (BP) neural network algorithms (genetic algorithm [GA], particle swarm optimization, mind evolutionary algorithm) are used for optimal model selection. The results indicate that, among the three BP neural network algorithms, the GA–BP model has the highest prediction accuracy on the test set. The performances of GA–BP, Thermal–Calc, and JMatPro in predicting the M s of medium‐ and low‐carbon steels and high‐carbon steels are analyzed using an unknown dataset. The results show that the GA–BP model has strong generalization ability and can predict M s relatively accurately. The influence of alloying elements on M s is analyzed using the GA–BP model and the shapley additive explanation method, which provides strategies for studying the microstructure evolution of steel or optimizing the heat‐treatment process.

steel research internationalVol. 96(12)
Baosteel (China) (CN), Harbin Welding Institute (CN), University of Science and Technology Beijing (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 89%
Metallurgical Processes and Thermodynamics
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