Repair Sequence and Recovery Time in Water Distribution Network Resiliency

Recent disasters highlighted that Water Distribution Systems (WDS) suffered greatly during seismic events. But people cannot afford to have extended water service interruption as it is essential for drinking; sanitation; and health. Thus; it is imperative that WDS provides adequate resistance to ext...

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Main Authors: Aquino, Janice Kaye, De Jesus, Richard, Garciano, Lessandro Estelito, Tanhueco, Renan, Garciano, Agnes
Format: text
Published: Archīum Ateneo 2021
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Online Access:https://archium.ateneo.edu/mathematics-faculty-pubs/164
https://geomatejournal.com/geomate/article/view/324
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Institution: Ateneo De Manila University
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spelling ph-ateneo-arc.mathematics-faculty-pubs-11612022-02-03T08:47:10Z Repair Sequence and Recovery Time in Water Distribution Network Resiliency Aquino, Janice Kaye De Jesus, Richard Garciano, Lessandro Estelito Tanhueco, Renan Garciano, Agnes Recent disasters highlighted that Water Distribution Systems (WDS) suffered greatly during seismic events. But people cannot afford to have extended water service interruption as it is essential for drinking; sanitation; and health. Thus; it is imperative that WDS provides adequate resistance to extreme events. And in the event of failure; it must recover back its functionality within short period. Resilience-based engineering ensures that infrastructures be robust to adequately resist seismic events and recover from failure fast. It also requires to have resources and redundant systems. This implies that WDS must satisfy resiliency requirements for it to function satisfactorily during and after seismic events. This study quantifies the resiliency of La Trinidad Water District (LTWD) through measuring the impacts of restoration sequences to recovery duration and knowing which sequence satisfies resiliency. LTWD; in Benguet; Philippines; is at risk to earthquake due to geologic and geographic setting; thus; it must be “resilient”. In this study; restoration strategies were conducted using constrained spanning trees to determine the most efficient network connectivity. Horn’s algorithm was applied to find the most efficient repair sequence. Results showed that restoration sequence is directly related to rapidity of resiliency. The shortest restoration resulted to a faster recovery to return back to its pre-event system functionality. For LTWD; restoration will take 8.62 days for full recovery. 2021-01-28T08:00:00Z text https://archium.ateneo.edu/mathematics-faculty-pubs/164 https://geomatejournal.com/geomate/article/view/324 Mathematics Faculty Publications Archīum Ateneo Resilience Horn’s algorithm Restoration curve Earthquake Water distribution network Civil and Environmental Engineering Mathematics
institution Ateneo De Manila University
building Ateneo De Manila University Library
continent Asia
country Philippines
Philippines
content_provider Ateneo De Manila University Library
collection archium.Ateneo Institutional Repository
topic Resilience
Horn’s algorithm
Restoration curve
Earthquake
Water distribution network
Civil and Environmental Engineering
Mathematics
spellingShingle Resilience
Horn’s algorithm
Restoration curve
Earthquake
Water distribution network
Civil and Environmental Engineering
Mathematics
Aquino, Janice Kaye
De Jesus, Richard
Garciano, Lessandro Estelito
Tanhueco, Renan
Garciano, Agnes
Repair Sequence and Recovery Time in Water Distribution Network Resiliency
description Recent disasters highlighted that Water Distribution Systems (WDS) suffered greatly during seismic events. But people cannot afford to have extended water service interruption as it is essential for drinking; sanitation; and health. Thus; it is imperative that WDS provides adequate resistance to extreme events. And in the event of failure; it must recover back its functionality within short period. Resilience-based engineering ensures that infrastructures be robust to adequately resist seismic events and recover from failure fast. It also requires to have resources and redundant systems. This implies that WDS must satisfy resiliency requirements for it to function satisfactorily during and after seismic events. This study quantifies the resiliency of La Trinidad Water District (LTWD) through measuring the impacts of restoration sequences to recovery duration and knowing which sequence satisfies resiliency. LTWD; in Benguet; Philippines; is at risk to earthquake due to geologic and geographic setting; thus; it must be “resilient”. In this study; restoration strategies were conducted using constrained spanning trees to determine the most efficient network connectivity. Horn’s algorithm was applied to find the most efficient repair sequence. Results showed that restoration sequence is directly related to rapidity of resiliency. The shortest restoration resulted to a faster recovery to return back to its pre-event system functionality. For LTWD; restoration will take 8.62 days for full recovery.
format text
author Aquino, Janice Kaye
De Jesus, Richard
Garciano, Lessandro Estelito
Tanhueco, Renan
Garciano, Agnes
author_facet Aquino, Janice Kaye
De Jesus, Richard
Garciano, Lessandro Estelito
Tanhueco, Renan
Garciano, Agnes
author_sort Aquino, Janice Kaye
title Repair Sequence and Recovery Time in Water Distribution Network Resiliency
title_short Repair Sequence and Recovery Time in Water Distribution Network Resiliency
title_full Repair Sequence and Recovery Time in Water Distribution Network Resiliency
title_fullStr Repair Sequence and Recovery Time in Water Distribution Network Resiliency
title_full_unstemmed Repair Sequence and Recovery Time in Water Distribution Network Resiliency
title_sort repair sequence and recovery time in water distribution network resiliency
publisher Archīum Ateneo
publishDate 2021
url https://archium.ateneo.edu/mathematics-faculty-pubs/164
https://geomatejournal.com/geomate/article/view/324
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