Abstract
High-rise housing, a trend in densely populated cities around the world, increases energy use for water supply and corresponding greenhouse gas emissions. This paper presents an energy efficiency evaluation measure for water supply system designs and demonstrates its applications in a typical water supply system installation of buildings. The energy efficiency for water supply system operation is the potential energy of the water demands in buildings divided by the required pumping energy. To demonstrate that the measure is useful for establishing optimal design solutions that integrate energy consumption into urban water planning processes that cater to various building demands and usage patterns, measurement data of high-rise residential buildings in Hong Kong were used. The results showed that this measure could serve as a useful benchmark reference for water supply system designs and establish demand management programs for buildings.
Original language | English |
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Title of host publication | Hydraulic Engineering IV - Proceedings of the 4th International Technical Conference on Hydraulic Engineering, CHE 2016 |
Publisher | CRC Press/Balkema |
Pages | 7-10 |
Number of pages | 4 |
ISBN (Print) | 9781138029484 |
Publication status | Published - 1 Jan 2016 |
Event | 4th International Technical Conference on Hydraulic Engineering, CHE 2016 held in conjunction with 5th International Workshop on Environment and Safety Engineering, WESE 2016 and 2nd International Structural and Civil Engineering Workshop, SCEW 2016 - Shenzhen, Hong Kong Duration: 16 Jul 2016 → 17 Jul 2016 |
Conference
Conference | 4th International Technical Conference on Hydraulic Engineering, CHE 2016 held in conjunction with 5th International Workshop on Environment and Safety Engineering, WESE 2016 and 2nd International Structural and Civil Engineering Workshop, SCEW 2016 |
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Country/Territory | Hong Kong |
City | Shenzhen |
Period | 16/07/16 → 17/07/16 |
ASJC Scopus subject areas
- Civil and Structural Engineering
- Water Science and Technology
- Safety, Risk, Reliability and Quality
- Environmental Engineering