Reliable prediction for TBM energy consumption during tunnel excavation: A novel technique balancing explainability and performance

Recently, AI-based models have been applied to accurately estimate tunnel boring machine (TBM) energy consumption. Although data-driven models exhibit strong predictive capabilities, their outputs derived from “black box” processes are challenging to interpret and generalize. Consequently, this study develops an XGB_MOFS model that cooperates extreme gradient boosting (XGBoost) and multi-objective feature selection (MOFS) to improve the accuracy and explainability of energy consumption prediction. The XGB_MOFS model includes: (1) a causal inference framework to identify the causal relationships among influential factors, and (2) a MOFS approach to balance predictive performance and explainability. Two case studies are carried out to verify the proposed method. Results show that XGB_MOFS achieves a high degree of accuracy and robustness in energy consumption prediction. The XGB_MOFS model, balancing accuracy with explainability, serves as an effective and feasible tool for regulating TBM energy consumption.

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Publication Details

Journal
Underground Space
Published
2024-12-30
DOI
https://doi.org/10.1016/j.undsp.2024.09.004
Citations
9
Primary Topic
Tunneling and Rock Mechanics
Type
article
Field-Weighted Citation Impact
2.35
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article

Reliable prediction for TBM energy consumption during tunnel excavation: A novel technique balancing explainability and performance

Fenghua Liu, Wenli Liu, Yafei Qi
9 citations
Underground Space
Tunneling and Rock Mechanics
2.35
article

Reliable prediction for TBM energy consumption during tunnel excavation: A novel technique balancing explainability and performance

Fenghua Liu, Wenli Liu, Yafei Qi
article en
9 citations

Abstract

Recently, AI-based models have been applied to accurately estimate tunnel boring machine (TBM) energy consumption. Although data-driven models exhibit strong predictive capabilities, their outputs derived from “black box” processes are challenging to interpret and generalize. Consequently, this study develops an XGB_MOFS model that cooperates extreme gradient boosting (XGBoost) and multi-objective feature selection (MOFS) to improve the accuracy and explainability of energy consumption prediction. The XGB_MOFS model includes: (1) a causal inference framework to identify the causal relationships among influential factors, and (2) a MOFS approach to balance predictive performance and explainability. Two case studies are carried out to verify the proposed method. Results show that XGB_MOFS achieves a high degree of accuracy and robustness in energy consumption prediction. The XGB_MOFS model, balancing accuracy with explainability, serves as an effective and feasible tool for regulating TBM energy consumption.

Underground SpaceVol. 22
Huazhong University of Science and Technology (CN)
Affordable and clean energy
Openalex Percentile: Top 12%
Tunneling and Rock Mechanics
2.35
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