Leakage Diffusion Modeling of Key Nodes of Gas Pipeline Network Based on Leakage Concentration

In order to achieve the prediction and early warning of city gas pipe network leakage accidents, as well as to provide rapid and precise support for emergency response to such accidents, this study focuses on a Gaussian diffusion model applied to a large urban gas pipeline network. Specifically, it...

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Veröffentlicht in:Sustainability 2024-01, Vol.16 (1), p.91
Hauptverfasser: Li, Hao-Peng, Chen, Liang-Chao, Dou, Zhan, Min, Yi-Meng, Wang, Qian-Lin, Yang, Jian-Feng, Zhang, Jian-Wen
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container_issue 1
container_start_page 91
container_title Sustainability
container_volume 16
creator Li, Hao-Peng
Chen, Liang-Chao
Dou, Zhan
Min, Yi-Meng
Wang, Qian-Lin
Yang, Jian-Feng
Zhang, Jian-Wen
description In order to achieve the prediction and early warning of city gas pipe network leakage accidents, as well as to provide rapid and precise support for emergency response to such accidents, this study focuses on a Gaussian diffusion model applied to a large urban gas pipeline network. Specifically, it investigates the gas gate wells, which are key nodes in the pipeline network, to develop a leakage model. The objective is to analyze the variation in internal gas concentration in the gate wells and determine the range of danger posed by external gas diffusion from the gate wells. In addition, Fluent simulation is utilized to compare the accuracy of the model’s calculations. The findings of this study indicate that the gas concentration inside the gate well, as predicted by the model fitting results and Fluent simulation, exhibit a high level of agreement, with coefficient of determination (R2) values exceeding 0.99. Moreover, when predicting the hazardous distance of gas leakage outside the gate well, the model’s results show an average relative error of 0.15 compared to the Fluent simulation results. This demonstrates that the model is highly accurate and meets the practical application requirements.
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source MDPI - Multidisciplinary Digital Publishing Institute; EZB-FREE-00999 freely available EZB journals
subjects Emergency communications systems
Fatalities
Fluid dynamics
Gas leaks
Gas transmission industry
International economic relations
Natural gas
Pipe lines
Simulation
Urban areas
Ventilation
title Leakage Diffusion Modeling of Key Nodes of Gas Pipeline Network Based on Leakage Concentration
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