Optimal Restoration Strategy Of A Water Pipeline Network In Surigao City, Philippines

Quick recovery of water services immediately after an earthquake is critical. This is to minimize hazards to environmental sanitation and consequent health problems caused by the lack of potable water supply. It is necessary therefore that water lifeline operators establish restoration strategies to...

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Main Authors: Garciano, Agnes, Garciano, Lessandro Estelito, Tanhueco, Renan Ma., Abubo, Taze Jared
Format: text
Published: Archīum Ateneo 2018
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Online Access:https://archium.ateneo.edu/mathematics-faculty-pubs/30
https://www.geomatejournal.com/sites/default/files/articles/25-29-7130-Garciano-Feb-2018.pdf
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Institution: Ateneo De Manila University
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spelling ph-ateneo-arc.mathematics-faculty-pubs-10292020-02-28T03:25:48Z Optimal Restoration Strategy Of A Water Pipeline Network In Surigao City, Philippines Garciano, Agnes Garciano, Lessandro Estelito Tanhueco, Renan Ma. Abubo, Taze Jared Quick recovery of water services immediately after an earthquake is critical. This is to minimize hazards to environmental sanitation and consequent health problems caused by the lack of potable water supply. It is necessary therefore that water lifeline operators establish restoration strategies to deal with damage scenarios in their respective concession areas specifically during extreme seismic events. The recent 6.7 magnitude earthquake in Surigao City due to the movement of the Philippine Fault Zone: Surigao segment underscored this need. However due to the complexity of the network a systematic restoration sequence that minimizes restoration time and maximizes delivery of water service should be employed. In this research, the authors employed Horn’s algorithm to determine the optimal restoration strategy of a pipeline network in Surigao City, Philippines. The repair sequence starts with the determination of a minimal spanning tree of the given pipeline network. The water source is designated as the root of this tree while the nodes represent the water demand at specific areas. The edges of the tree structure representing the pipelines connect the nodes. The assigned numeric value or weight of an edge (link) denotes the time to repair that specific pipeline. This value is a function of the length of the pipeline. The results show that an optimal job sequence may be carried out by considering maximal ratios of expanding family trees within the network. A least penalty function is a consequence of the optimal repair job sequence. 2018-01-01T08:00:00Z text https://archium.ateneo.edu/mathematics-faculty-pubs/30 https://www.geomatejournal.com/sites/default/files/articles/25-29-7130-Garciano-Feb-2018.pdf Mathematics Faculty Publications Archīum Ateneo water lifeline seismic event Horn’s Algorithm minimal spanning tree penalty function 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 water lifeline
seismic event
Horn’s Algorithm
minimal spanning tree
penalty function
Mathematics
spellingShingle water lifeline
seismic event
Horn’s Algorithm
minimal spanning tree
penalty function
Mathematics
Garciano, Agnes
Garciano, Lessandro Estelito
Tanhueco, Renan Ma.
Abubo, Taze Jared
Optimal Restoration Strategy Of A Water Pipeline Network In Surigao City, Philippines
description Quick recovery of water services immediately after an earthquake is critical. This is to minimize hazards to environmental sanitation and consequent health problems caused by the lack of potable water supply. It is necessary therefore that water lifeline operators establish restoration strategies to deal with damage scenarios in their respective concession areas specifically during extreme seismic events. The recent 6.7 magnitude earthquake in Surigao City due to the movement of the Philippine Fault Zone: Surigao segment underscored this need. However due to the complexity of the network a systematic restoration sequence that minimizes restoration time and maximizes delivery of water service should be employed. In this research, the authors employed Horn’s algorithm to determine the optimal restoration strategy of a pipeline network in Surigao City, Philippines. The repair sequence starts with the determination of a minimal spanning tree of the given pipeline network. The water source is designated as the root of this tree while the nodes represent the water demand at specific areas. The edges of the tree structure representing the pipelines connect the nodes. The assigned numeric value or weight of an edge (link) denotes the time to repair that specific pipeline. This value is a function of the length of the pipeline. The results show that an optimal job sequence may be carried out by considering maximal ratios of expanding family trees within the network. A least penalty function is a consequence of the optimal repair job sequence.
format text
author Garciano, Agnes
Garciano, Lessandro Estelito
Tanhueco, Renan Ma.
Abubo, Taze Jared
author_facet Garciano, Agnes
Garciano, Lessandro Estelito
Tanhueco, Renan Ma.
Abubo, Taze Jared
author_sort Garciano, Agnes
title Optimal Restoration Strategy Of A Water Pipeline Network In Surigao City, Philippines
title_short Optimal Restoration Strategy Of A Water Pipeline Network In Surigao City, Philippines
title_full Optimal Restoration Strategy Of A Water Pipeline Network In Surigao City, Philippines
title_fullStr Optimal Restoration Strategy Of A Water Pipeline Network In Surigao City, Philippines
title_full_unstemmed Optimal Restoration Strategy Of A Water Pipeline Network In Surigao City, Philippines
title_sort optimal restoration strategy of a water pipeline network in surigao city, philippines
publisher Archīum Ateneo
publishDate 2018
url https://archium.ateneo.edu/mathematics-faculty-pubs/30
https://www.geomatejournal.com/sites/default/files/articles/25-29-7130-Garciano-Feb-2018.pdf
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