Abstract
This paper presents a novel methodology to automatically split a water distribution system (WDS) into self-adapting district metered areas (DMAs) of
different size. The proposal benefit of embedding a visual analytics approach at the same time it is suitable to control inlets / outlets for each proposed partition
which leads to an optimal operation and management of WDSs. Complex networks theory proposes the essentials of a novel multiscale network layout made by landmark and key nodes for the water supply plus hyper-links representing the connection between them. The proposed multiscale layout partitioning has been tested for a real medium-size water distribution network. This is shown to naturally support further DMA aggregation / disaggregation operations with the direct benefit of providing a better dynamic system control and superior efficient water management than static DMA configurations, particularly in case of abnormal functioning conditions, not taken into account during the first partitioning design. The proposed tool gives the possibility to automatically define a dynamic partitioning of WDSs according to spatial and temporal (hourly, daily, seasonally) water demand variability, ensuring an efficient and low-cost management of the system and simultaneously preserving the hydraulic performance of the WDS.
different size. The proposal benefit of embedding a visual analytics approach at the same time it is suitable to control inlets / outlets for each proposed partition
which leads to an optimal operation and management of WDSs. Complex networks theory proposes the essentials of a novel multiscale network layout made by landmark and key nodes for the water supply plus hyper-links representing the connection between them. The proposed multiscale layout partitioning has been tested for a real medium-size water distribution network. This is shown to naturally support further DMA aggregation / disaggregation operations with the direct benefit of providing a better dynamic system control and superior efficient water management than static DMA configurations, particularly in case of abnormal functioning conditions, not taken into account during the first partitioning design. The proposed tool gives the possibility to automatically define a dynamic partitioning of WDSs according to spatial and temporal (hourly, daily, seasonally) water demand variability, ensuring an efficient and low-cost management of the system and simultaneously preserving the hydraulic performance of the WDS.
Original language | English |
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Pages (from-to) | 835-848 |
Number of pages | 14 |
Journal | Water Resources Management |
Volume | 34 |
Early online date | 7 Jan 2020 |
DOIs | |
Publication status | Published - 31 Jan 2020 |
Keywords
- Water distribution systems
- District Metered Areas
- Complex networks
- Semi-supervised clustering
- Dynamic operation and control
- Abnormal conditions
- Reslient infrastructure
ASJC Scopus subject areas
- General Engineering
- General Environmental Science
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Kemi Adeyeye
- Department of Architecture & Civil Engineering - Senior Lecturer
- Centre for Regenerative Design & Engineering for a Net Positive World (RENEW)
- Water Innovation and Research Centre (WIRC)
Person: Research & Teaching, Core staff