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Deep learning framework based on ITOC optimization for coal spontaneous combustion temperature prediction: a coupled
Xuming Shao1, Wenhao Liu2, Gang Bai3,4,5
1Safety Science and Engineering College, Liaoning Technical University, Huludao, 125105, Liaoning , China. shaoxuming66@163.com.
This study introduces an advanced deep learning model for predicting coal spontaneous combustion temperatures using key gas indicators. The novel ITOC-CNN-BiGRU-CBAM framework enhances safety by enabling precise early warning systems in coal mines.
Area of Science:
- Mining Engineering
- Chemical Engineering
- Artificial Intelligence
Background:
- Coal spontaneous combustion (CSC) is a major safety risk in mines, necessitating accurate temperature prediction for early warning systems.
- Understanding coal oxidation and pyrolysis is vital for assessing combustion risk and developing effective control strategies.
Purpose of the Study:
- To develop and validate a novel deep learning framework for accurate temperature prediction in coal spontaneous combustion.
- To identify key gas indicators highly correlated with CSC temperature for improved predictive modeling.
Main Methods:
- Analysis of programmed heating experimental data and coal oxidation-pyrolysis coupled reaction mechanism.
- Pearson correlation analysis to identify six key gas indicators (O₂, CO, C₂H₄, CO/ΔO₂, C₂H₄/C₂H₆, C₂H₆).
- Development of an Improved Tornado Optimization with Coriolis force (ITOC) strategy integrated with a CNN-BiGRU-CBAM deep learning model for hyperparameter optimization and prediction.
Main Results:
- The ITOC algorithm demonstrated superior accuracy and convergence stability compared to five heuristic algorithms.
- The proposed ITOC-CNN-BiGRU-CBAM model achieved high accuracy on the test set with R² of 0.9738, MAPE of 4.1254%, MAE of 6.2740, and RMSE of 12.4735.
- Field validation in multiple coal mines confirmed the model's strong generalization and engineering adaptability, with predicted temperatures closely matching measurements.
Conclusions:
- The ITOC-CNN-BiGRU-CBAM model provides a robust and accurate method for predicting coal spontaneous combustion temperatures.
- This intelligent framework offers a promising theoretical and practical solution for early warning and precise prevention of CSC hazards in mining operations.
- The identified key gas indicators serve as reliable predictors for assessing coal oxidation stages and combustion risks.
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