A Machine Learning-Enabled Method for Predicting the Tribological Performance of Materials Considering Surface/Interface Properties

The surface/interface properties of materials affect their tribological behavior significantly, necessitating quantitative research. Here, a hybrid machine learning model named CS-LSBoost (Cuckoo Searching-Least Square Boosting) is proposed to evaluate and predict the tribological properties, considering surface/interface properties as input. The incorporation of the CS algorithm in the proposed model accelerates the modeling procedure and improves accuracy. In contrast to the conventional LSBoost algorithm, the CS-LSBoost algorithm exhibits superior performance that reduces the MAPE (mean average percentage error) on the CV (Cross-Validation) set in the friction task from 15.41% to 12.10% and in the wear task from 14.97% to 10.09%. When predicting the coef. friction and wear rate, the validation MAPEs on the hold-out set were only 6.31% and 9.54%, respectively. The proposed prediction model, with accurate quantitative correlation and appropriate physical interpretability between the tribological performance and the surface and interface properties of materials, can provide guidance for material optimization.

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Publication Details

Journal
Langmuir
Published
2026-03-22
DOI
https://doi.org/10.1021/acs.langmuir.5c04625
Primary Topic
Tribology and Wear Analysis
Type
article
Field-Weighted Citation Impact
0.00
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article

A Machine Learning-Enabled Method for Predicting the Tribological Performance of Materials Considering Surface/Interface Properties

Shenlin Yang, Min Li, Zeyun Li, Junteng Wang et al.
Langmuir
Tribology and Wear Analysis
article

A Machine Learning-Enabled Method for Predicting the Tribological Performance of Materials Considering Surface/Interface Properties

Shenlin Yang, Min Li, Zeyun Li, Junteng Wang, Xue Yang, Di Tan, Xin Wang
article en

Abstract

The surface/interface properties of materials affect their tribological behavior significantly, necessitating quantitative research. Here, a hybrid machine learning model named CS-LSBoost (Cuckoo Searching-Least Square Boosting) is proposed to evaluate and predict the tribological properties, considering surface/interface properties as input. The incorporation of the CS algorithm in the proposed model accelerates the modeling procedure and improves accuracy. In contrast to the conventional LSBoost algorithm, the CS-LSBoost algorithm exhibits superior performance that reduces the MAPE (mean average percentage error) on the CV (Cross-Validation) set in the friction task from 15.41% to 12.10% and in the wear task from 14.97% to 10.09%. When predicting the coef. friction and wear rate, the validation MAPEs on the hold-out set were only 6.31% and 9.54%, respectively. The proposed prediction model, with accurate quantitative correlation and appropriate physical interpretability between the tribological performance and the surface and interface properties of materials, can provide guidance for material optimization.

Langmuir
Hong Kong Polytechnic University (HK), Naval University of Engineering (CN), Chengdu Organic Chemicals (China) (CN), AviChina Industry & Technology (China) (CN), Vibrant Data (United States) (US)
Openalex Percentile: Top 11%
Tribology and Wear Analysis
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