Tianwei Mu*, Chunzheng Zhang, Manhong Huang, Baokuan Ning and Junxiang Wang,
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引用次数: 0
摘要
有效的渗漏检测对于确保配水系统(WDS)的运行效率、减少水量损失和维护基础设施完整性至关重要。本研究提出了一种由时空图卷积网络(ST-GCN)增强的专门漏水检测方法。该方法结合了大规模网络分区、优化传感器布置、试验规模网络分区和 ST-GCN 模型,后者可捕捉空间和时间依赖关系。然后,通过两个案例研究来评估该方法的有效性。该模型在多次测试中的平均准确率、精确率、召回率和 F1 分数分别达到了 98.38%、98.89%、97.95% 和 98.41%,在网络 A 和网络 B 中分别达到了 98.51%、98.51%、98.56% 和 98.53%,证明了该模型的高性能。此外,它还将模型的模拟结果与三种现有方法进行了比较。就准确性而言,增强型 ST-GCN 模型优于其他模型,证实了其在检测泄漏方面的卓越功效。
Partitioning Leakage Detection in Water Distribution Systems: A Specialized Deep Learning Framework Enhanced by Spatial–Temporal Graph Convolutional Networks
Effective leakage detection is crucial for ensuring operational efficiency, reducing water loss, and maintaining infrastructure integrity in water distribution systems (WDSs). This study presents a specialized leakage detection approach enhanced by spatial–temporal graph convolutional networks (ST-GCN). This method combines large-scale network partition, optimized sensor placement, pilot-scale network partition, and the ST-GCN model, which captures both spatial and temporal dependencies. Then, two case studies are employed to evaluate the effectiveness of this method. The model achieved an average accuracy, precision, recall, and F1-score of 98.38, 98.89, 97.95, and 98.41% across multiple tests for Network A and of 98.51, 98.51, 98.56, and 98.53% for Network B, respectively, which demonstrate the model’s high performance. Furthermore, it compares the model’s simulation results with three existing methods. The enhanced ST-GCN model is superior to those of the other models in terms of accuracy, confirming its superior effectiveness in detecting leakages.