Coal Mine Roof Water Inrush Prediction Based on Machine Learning Research

This study develops an intelligent multi-indicator collaborative approach to improve coal seam roof water inrush warnings. A multidimensional dataset is constructed using microseismic data, borehole water levels, electrical measurements, and daily water inflow. A VMD-LSTM algorithm is proposed to predict roof rupture height, while regression analysis handles remaining indicators. Results show that during water-conducting channel development, microseismic activity, electrical data, and water inflow increase synchronously, whereas borehole water levels decline significantly—trends that reverse post-development. Compared to traditional LSTM, the VMD-LSTM model reduces MAE by 15.38%, RMSE by 20.00%, MAPE by 17.39%, HH by 9.52%, GPI by 10.76%, and improves NSE by 6.90%, demonstrating high accuracy. The central tendency prediction errors for the remaining indicators range from 0.63% to 5.73%. This integration of intelligent algorithms and multi-indicator analysis enables precise prediction of water inrush precursors, offering a new technical framework for roof water hazard prevention.

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Publication Details

Journal
Water
Published
2026-04-27
DOI
https://doi.org/10.3390/w18091036
Primary Topic
Rock Mechanics and Modeling
Type
article
Field-Weighted Citation Impact
0.00

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article

Coal Mine Roof Water Inrush Prediction Based on Machine Learning Research

谭文峰, J Chen, Jiwen Bai, Wenqiang Mu et al.
Water
Rock Mechanics and Modeling
article

Coal Mine Roof Water Inrush Prediction Based on Machine Learning Research

谭文峰, J Chen, Jiwen Bai, Wenqiang Mu, Lu Li, Zhu Qu, Haoyu Zhou, Fangcan Wu
article en

Abstract

This study develops an intelligent multi-indicator collaborative approach to improve coal seam roof water inrush warnings. A multidimensional dataset is constructed using microseismic data, borehole water levels, electrical measurements, and daily water inflow. A VMD-LSTM algorithm is proposed to predict roof rupture height, while regression analysis handles remaining indicators. Results show that during water-conducting channel development, microseismic activity, electrical data, and water inflow increase synchronously, whereas borehole water levels decline significantly—trends that reverse post-development. Compared to traditional LSTM, the VMD-LSTM model reduces MAE by 15.38%, RMSE by 20.00%, MAPE by 17.39%, HH by 9.52%, GPI by 10.76%, and improves NSE by 6.90%, demonstrating high accuracy. The central tendency prediction errors for the remaining indicators range from 0.63% to 5.73%. This integration of intelligent algorithms and multi-indicator analysis enables precise prediction of water inrush precursors, offering a new technical framework for roof water hazard prevention.

WaterVol. 18(9)
Shandong University (CN), State Key Laboratory of Hydrology-Water Resources and Hydraulic Engineering (CN), Northwest Institute of Mechanical and Electrical Engineering (CN), Shaanxi Yulin Energy Group (CN), China Coal Research Institute (China) (CN), Shandong University of Science and Technology (CN), Northeastern University (CN), Tsinghua University (CN)
National Natural Science Foundation of China, Shandong Academy of Sciences
Clean water and sanitation
Openalex Percentile: Top 12%
Rock Mechanics and Modeling
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