Prediction of phases and mechanical properties of magnesium-based high-entropy alloys using machine learning

被引:0
作者
Otieno, Robert [1 ]
Odhong, Edward, V [1 ]
Ondieki, Charles [1 ]
机构
[1] Multimedia Univ Kenya, Dept Mech & Mechatron Engn, POB 15653-00503, Nairobi, Kenya
关键词
Magnesium alloys; Phase prediction; Machine learning; Predictor features; Mechanical properties;
D O I
10.1016/j.jksus.2024.103456
中图分类号
O [数理科学和化学]; P [天文学、地球科学]; Q [生物科学]; N [自然科学总论];
学科分类号
07 ; 0710 ; 09 ;
摘要
Objectives: To predict phases and mechanical properties of Mg-Al-Cu-Mn-Zn alloys and to validate the results. Methods: In this study, 29 predictor features of the alloys were examined based on dataset drawn from relevant publications. The correlation of selected predictor features with mechanical properties of Mg-Al-Cu-Mn-Zn alloys were evaluated. New features specific to vehicle and aerospace applications were used. Feature selection schemes involving four machine learning (ML) classifiers that included artificial neural networks (ANN), linear discriminant analysis (LDA), random forest regression (RF) and k-nearest neighbours (k-NN) were adopted. Tensile test was carried out based on ASTM E8 standard. Results: Results of correlation of features showed that specific strengths and specific modulus of the alloys were strongly and positively correlated with composition of alloying elements but strongly and negatively correlated with composition of magnesium. The results also revealed that homogenization temperatures and time were weakly correlated with the mechanical properties and phases while electronegativity difference and VEC had significant positive correlation. ANN was the best performing classifier followed by k-NN, LDA, and lastly RF with prediction accuracy on test data of 98.7%, 98.1%, 97.9% and 97.8%, respectively. The validity and applicability of the model was tested with three magnesium-based alloys: Mg-80-Al-10-Cu-5-Mn-5-Zn-0, Mg-80Al-5-Cu-5-Mn-5-Zn-5 and Mg-91.2-Al-8.3-Cu-0-Mn-0.15-Zn-0.35 and compared with findings in literature. The model had higher prediction accuracies compared to previous ML models used on magnesium alloys. The model was then used to predict phases in the Mg-89.43-Al-8.16-Cu-0.34-Mn-0.25-Zn-1.81 alloy and it accurately predicted presence of Mg17Al12, 17 Al 12 , Mg2Si, 2 Si, MgZn and MgZn2. 2 . Results of simulation in MatCalc version 6.04 also verified presence of the phases. The phases were further confirmed through SEM/EDS analysis. Conclusions. Dominant strengthening phases were Mg17Al12, 17 Al 12 , Mg2Si, 2 Si, MgZn and MgZn2. 2 . Predicted yield strength, ultimate tensile strength and Young's modulus were within the range of experimental results. Specific strengths and specific modulus were also within the range.
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页数:8
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共 27 条
[1]  
Behera A., 2022, Nickel-titanium smart hybrid materials for automotive industry, P271, DOI [10.1016/B978-0-323-91173-3.00015-8, DOI 10.1016/B978-0-323-91173-3.00015-8]
[2]   Mechanical and Thermal Properties of Low-Density Al20+xCr20-xMo20-yTi20V20+y Alloys [J].
Bhandari, Uttam ;
Zhang, Congyan ;
Yang, Shizhong .
CRYSTALS, 2020, 10 (04)
[3]   X-ray Thermo-Diffraction Study of the Aluminum-Based Multicomponent Alloy Al58Zn28Si8Mg6 [J].
Bilbao, Yoana ;
Jose Trujillo, Juan ;
Vicario, Iban ;
Arruebarrena, Gurutze ;
Hurtado, Inaki ;
Guraya, Teresa .
MATERIALS, 2022, 15 (14)
[4]   Accurate machine learning models based on small dataset of energetic materials through spatial matrix featurization methods [J].
Chen, Chao ;
Liu, Danyang ;
Deng, Siyan ;
Zhong, Lixiang ;
Chan, Serene Hay Yee ;
Li, Shuzhou ;
Hng, Huey Hoon .
JOURNAL OF ENERGY CHEMISTRY, 2021, 63 :364-375
[5]   Microstructure, mechanical properties and corrosion behavior of quasicrystal-reinforced Mg-Zn-Y alloy subjected to dual-frequency ultrasonic field [J].
Chen, Xingrui ;
Ning, Shaochen ;
Wang, An ;
Le, Qichi ;
Liao, Qiyu ;
Jia, Yonghui ;
Cheng, Chunlong ;
Li, Xiaoqaing ;
Atrens, Andrej ;
Yu, Fuxiao .
CORROSION SCIENCE, 2020, 163
[6]   Comparison study of hot deformation behavior and processing map of AZ80 magnesium alloy casted with and without ultrasonic vibration [J].
Chen, Xingrui ;
Liao, Qiyu ;
Niu, Yanxia ;
Jia, Yonghui ;
Le, Qichi ;
Ning, Shaocheng ;
Hu, Chenglu ;
Hu, Ke ;
Yu, Fuxiao .
JOURNAL OF ALLOYS AND COMPOUNDS, 2019, 803 :585-596
[7]   A constitutive relation of AZ80 magnesium alloy during hot deformation based on Arrhenius and Johnson-Cook model [J].
Chen, Xingrui ;
Liao, Qiyu ;
Niu, Yanxia ;
Jia, Weitao ;
Le, Qichi ;
Cheng, Chunlong ;
Yu, Fuxiao ;
Cui, Jianzhong .
JOURNAL OF MATERIALS RESEARCH AND TECHNOLOGY-JMR&T, 2019, 8 (02) :1859-1869
[8]   Machine Learning Aided Prediction and Design for the Mechanical Properties of Magnesium Alloys [J].
Dong, Shuya ;
Wang, Yingying ;
Li, Jinya ;
Li, Yuanyuan ;
Wang, Li ;
Zhang, Jinglai .
METALS AND MATERIALS INTERNATIONAL, 2024, 30 (03) :593-606
[9]   Ultra-rapid synthesis of the MgCu2 and Mg2Cu Laves phases and their facile conversion to nanostructured copper with controllable porosity; an energy-efficient, reversible process [J].
Fan, Zhen ;
Baranovas, Gytis ;
Yu, Holly A. ;
Szczesny, Robert ;
Liu, Wei-Ren ;
Gregory, Duncan H. .
GREEN CHEMISTRY, 2021, 23 (18) :6936-6944
[10]   Design of Light-Weight High-Entropy Alloys [J].
Feng, Rui ;
Gao, Michael C. ;
Lee, Chanho ;
Mathes, Michael ;
Zuo, Tingting ;
Chen, Shuying ;
Hawk, Jeffrey A. ;
Zhang, Yong ;
Liaw, Peter K. .
ENTROPY, 2016, 18 (09)