基于人工神经网络的输气管道实时监控

R.B. Santos, E. O. Sousa, F.V. da Silva, S.L. da Cruz, A. Fileti
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引用次数: 4

摘要

考虑到监测管道系统的重要性,本工作提出了一种基于声学方法和基于神经网络的泄漏位置在线预测的管道气体泄漏检测技术。泄漏产生的可听噪音由安装在60米长的管道上的麦克风捕获。声音噪声被分解成不同频率的声音:1kHz、5kHz和9kHz。这些噪声在时间上的动态被用作神经模型的输入,以确定泄漏的发生、大小和位置(模型的输出)。结果显示了该技术和所建立的神经模型的巨大潜力。对于所有在线测试,神经模型1(负责确定泄漏的发生和大小)显示出100%的准确性,除了泄漏通过一个小孔(1毫米)发生,泄漏位于距离麦克风3米的地方。在所有神经模型1检测到泄漏的情况下,神经模型2(负责确定位置)可以准确地预测泄漏的确切位置,除了一个3mm的孔,泄漏发生在管道的进口端,显示误差约为1.2 m。
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Real-Time Monitoring of Gas Pipeline through Artificial Neural Networks
Considering the importance of monitoring pipeline systems, this work presents the development of a technique to detect gas leakage in pipelines, based on acoustic method and on-line prediction of leak location using neural artificial networks. Audible noises generated by leakage were captured by a microphone installed in a 60 m long pipeline. The sound noises were decomposed into sounds of different frequencies: 1kHz, 5kHz and 9kHz. The dynamics of these noises in time were used as input to the neural model in order to determine the occurrence, magnitude and location of a leak (outputs of the model). The results have shown the great potential of the technique and of the developed neural models. For all on-line tests, the neural model 1 (responsible for determining the occurrence and magnitude of the leak) showed 100% accuracy, except when the leakage occurred through a small orifice (1 mm), with leak located at 3 m from the microphone. In all cases where neural model 1 detected the leak, the neural model 2 (responsible determining the location) could accurately predict the exact location of the leak, except for an orifice of 3 mm, with leakage occurring at the inlet end of the pipeline, showing an error of approximately 1.2 m.
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