This research demonstrates improved water source identification in mining areas, highlighting enhanced accuracy and efficiency.
Coal mine water disasters are one of the main disasters threatening the safe production of mines, and the accurate identification of water - filling sources has become a crucial step in preventing and controlling water disasters. In response to the problems of low efficiency and poor real - time performance in traditional water quality analysis methods, this study proposes and implements a water source identification system based on intelligent algorithms. The system integrates principal component analysis (PCA) and least squares support vector machine (LSSVM) to construct a PCA - LSSVM hybrid model. First, the model uses PCA to perform dimensionality reduction on the spectral monitoring data of key ions, eliminating redundant information. Then, it combines LSSVM for non - linear classification training, significantly improving the efficiency and accuracy of water source feature extraction. The Schukarev classification method is introduced to systematically classify water - filling sources based on the dominant ion combinations in groundwater, providing a scientific basis for tracing the water inrush channels. The developed high - precision spectral water quality sensor and its supporting monitoring system, compared with traditional ion - electrode sensors, have an approximately 30% increase in detection accuracy, a response time reduced to the second level, and a significantly enhanced anti - interference ability. The system has been deployed on a large scale in multiple mining areas. The measured data shows that the accuracy of water source type identification is stably above 90%, and the false alarm rate is lower than 5%, providing reliable technical support for water disaster early warning.
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Yun-bo et al. (2025) studied this question.
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