Engineering Approach to Assessing the Vulnerability of Water Abstraction

Variability in stream flow/discharge results in serious problems for engineers and difficulties in characterizing water systems under future climatic conditions. The management of water security in the engineering domain requires approaches aimed at minimizing the detrimental effects of the hydrolog...

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Main Author: Jure Margeta
Format: Article
Language:English
Published: MDPI AG 2024-02-01
Series:Applied Sciences
Subjects:
Online Access:https://www.mdpi.com/2076-3417/14/5/1879
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author Jure Margeta
author_facet Jure Margeta
author_sort Jure Margeta
collection DOAJ
description Variability in stream flow/discharge results in serious problems for engineers and difficulties in characterizing water systems under future climatic conditions. The management of water security in the engineering domain requires approaches aimed at minimizing the detrimental effects of the hydrological behavior of natural systems. Abstraction facilities must be strengthened to ensure sustainable supply and water security over time and at different scales. Several approaches and methodologies have been developed to translate water security into a framework that provides information on how to improve it. In this study, a scalar range idea is used to evaluate the sensitivity of a water resource system and cause–effect linkages define the vulnerability indicator as management-relevant information to address water security. This intuitively relates the extreme deviations of a particular streamflow to the average system response related to a particular hazard indicator. This determines the current stress in the operation of the abstraction facilities based on historical hydrometeorological changes, which is the basis for assessing future operational conditions and risks. This study uses streamflow extremes and averages as hazard-relevant indicators of water supply security. The results of the two case studies show that the applied approach fully appreciates the internal properties of water resource systems that affect the sensitivity/vulnerability of streamflow, as well as the derived streamflow vulnerability index and function. The obtained results were used to assess the vulnerability of water intake as well as the choice of safety factors and design parameters in accordance with the forecasted average annual and seasonal climate factors.
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spelling doaj.art-f6e83895bb9f4bdf99ed5470564cab102024-03-12T16:39:19ZengMDPI AGApplied Sciences2076-34172024-02-01145187910.3390/app14051879Engineering Approach to Assessing the Vulnerability of Water AbstractionJure Margeta0Faculty of Civil Engineering, Architecture and Geodesy, University of Split, Matice Hrvatske 15, 21000 Split, CroatiaVariability in stream flow/discharge results in serious problems for engineers and difficulties in characterizing water systems under future climatic conditions. The management of water security in the engineering domain requires approaches aimed at minimizing the detrimental effects of the hydrological behavior of natural systems. Abstraction facilities must be strengthened to ensure sustainable supply and water security over time and at different scales. Several approaches and methodologies have been developed to translate water security into a framework that provides information on how to improve it. In this study, a scalar range idea is used to evaluate the sensitivity of a water resource system and cause–effect linkages define the vulnerability indicator as management-relevant information to address water security. This intuitively relates the extreme deviations of a particular streamflow to the average system response related to a particular hazard indicator. This determines the current stress in the operation of the abstraction facilities based on historical hydrometeorological changes, which is the basis for assessing future operational conditions and risks. This study uses streamflow extremes and averages as hazard-relevant indicators of water supply security. The results of the two case studies show that the applied approach fully appreciates the internal properties of water resource systems that affect the sensitivity/vulnerability of streamflow, as well as the derived streamflow vulnerability index and function. The obtained results were used to assess the vulnerability of water intake as well as the choice of safety factors and design parameters in accordance with the forecasted average annual and seasonal climate factors.https://www.mdpi.com/2076-3417/14/5/1879water resource systemsstreamflow vulnerabilityengineering approachwater abstraction performanceclimate changewater security
spellingShingle Jure Margeta
Engineering Approach to Assessing the Vulnerability of Water Abstraction
Applied Sciences
water resource systems
streamflow vulnerability
engineering approach
water abstraction performance
climate change
water security
title Engineering Approach to Assessing the Vulnerability of Water Abstraction
title_full Engineering Approach to Assessing the Vulnerability of Water Abstraction
title_fullStr Engineering Approach to Assessing the Vulnerability of Water Abstraction
title_full_unstemmed Engineering Approach to Assessing the Vulnerability of Water Abstraction
title_short Engineering Approach to Assessing the Vulnerability of Water Abstraction
title_sort engineering approach to assessing the vulnerability of water abstraction
topic water resource systems
streamflow vulnerability
engineering approach
water abstraction performance
climate change
water security
url https://www.mdpi.com/2076-3417/14/5/1879
work_keys_str_mv AT juremargeta engineeringapproachtoassessingthevulnerabilityofwaterabstraction