Feasibility of Using Hypothetical Fractal Structures to Determine Water Outflow Zones After a Pipe Failure

Failures of water supply pipes are undesirable events with a random nature, yet they are an inevitable part of the operation of water infrastructure. Therefore, ongoing research is being conducted to develop methods for minimising their effects or securing underground infrastructure. One of the methods of limiting the effects of the suffosion phenomenon is determination of the water outflow zone, within which water will possibly flow to the soil surface after a pipe leak. The aim of this paper was to assess hypothetical structures created by outflowing water in terms of their potential use in determining the water outflow zone on the soil surface after a water pipe failure. Based on the laboratory test results, the Monte Carlo method was applied to generate the hypothetical population of points representing the places of water outflow. Three parameters characterising hypothetical structures were analysed: fractal dimension, length of a section, and the product of above parameters. The conducted research showed that it is possible to build a reliable hypothetical structure that allows for estimating the water outflow zone radius, knowledge of which would facilitate sustainable management of the water supply network by water utilities by enabling the estimation of the water outflow zone radius in practice.

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Publication Details

Journal
Sustainability
Published
2024-12-04
DOI
https://doi.org/10.3390/su162310640
Citations
1
Primary Topic
Water Systems and Optimization
Type
article
Field-Weighted Citation Impact
0.26

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article

Feasibility of Using Hypothetical Fractal Structures to Determine Water Outflow Zones After a Pipe Failure

Paweł Suchorab, Małgorzata Iwanek
1 citations
Sustainability
Water Systems and Optimization
0.26
article

Feasibility of Using Hypothetical Fractal Structures to Determine Water Outflow Zones After a Pipe Failure

Paweł Suchorab, Małgorzata Iwanek
article en
1 citations

Abstract

Failures of water supply pipes are undesirable events with a random nature, yet they are an inevitable part of the operation of water infrastructure. Therefore, ongoing research is being conducted to develop methods for minimising their effects or securing underground infrastructure. One of the methods of limiting the effects of the suffosion phenomenon is determination of the water outflow zone, within which water will possibly flow to the soil surface after a pipe leak. The aim of this paper was to assess hypothetical structures created by outflowing water in terms of their potential use in determining the water outflow zone on the soil surface after a water pipe failure. Based on the laboratory test results, the Monte Carlo method was applied to generate the hypothetical population of points representing the places of water outflow. Three parameters characterising hypothetical structures were analysed: fractal dimension, length of a section, and the product of above parameters. The conducted research showed that it is possible to build a reliable hypothetical structure that allows for estimating the water outflow zone radius, knowledge of which would facilitate sustainable management of the water supply network by water utilities by enabling the estimation of the water outflow zone radius in practice.

SustainabilityVol. 16(23)
Lublin University of Technology (PL)
Politechnika Lubelska
Industry, innovation and infrastructure
Openalex Percentile: Top 42%
Water Systems and Optimization
0.26
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