An introduction to district heating and cooling :low carbon energy for buildings /
"Version: 20231101"--Title page verso.Includes bibliographical references.part I. Introduction to district heating and cooling. 1. Introduction -- 1.1. What is district heating and cooling? -- 1.2. Why use DH/C? -- 1.3. Development of district heating -- 1.4. Development of district cooling2. Key features of DH/C systems -- 2.1. Component parts of a DH system -- 2.2. Component parts of a DC system -- 2.3. Trends in DH design -- 2.4. Ambient temperature networkspart II. The engineering of DH and DC systems. 3. Building services--heating and cooling systems -- 3.1. Importance of a building's heating and cooling systems -- 3.2. Space heating -- 3.3. Domestic hot water heating -- 3.4. Space cooling -- 3.5. Modifications to existing building heating systems4. Interface between building heating and cooling systems and the DH/C systems -- 4.1. Principal requirements for DH interface -- 4.2. Types of interface equipment -- 4.3. Heat interface units for dwellings -- 4.4. Substations for non-residential buildings -- 4.5. Control of bypass flows -- 4.6. Interfaces for district cooling5. Heating and cooling distribution systems -- 5.1. Network routes and civil engineering -- 5.2. Energy analysis of DH/C systems -- 5.3. Pressure drops and efficient pump design -- 5.4. Heat losses -- 5.5. Pipe sizing and optimisation -- 5.6. Technologies -- 5.7. Design of steel pipe systems and application of EN13941 -- 5.8. Quality control in construction -- 5.9. Isolating valves -- 5.10. Design for future growth of demand -- 5.11. District cooling pipes6. Heating and cooling production -- 6.1. Introduction -- 6.2. Combined heat and power--a more efficient process -- 6.3. Heat pumps--a more efficient use of electricity -- 6.4. Comparison of energy and environmental impact of boilers, CHP and heat pumps -- 6.5. High temperature heat recovery from power plant and process plant -- 6.6. Low temperature heat recovery with heat pump -- 6.7. Renewable heat sources -- 6.8. Summary of low carbon heat production technologies -- 6.9. The value of multiple heat sources -- 6.10. Optimal scale of DH networks -- 6.11. Peak and standby plant -- 6.12. Thermal storage -- 6.13. District cooling production -- 6.14. Thermal storage for DC -- 6.15. Energy centre building design7. Operating temperatures for DH -- 7.1. Introduction -- 7.2. Customer's systems -- 7.3. Heat network -- 7.4. Heat production plant and selection of temperatures -- 7.5. Variable flow temperatures -- 7.6. Summary8. Some operational aspects -- 8.1. Optimisation of operation of production plant -- 8.2. Water treatment -- 8.3. Metering and billing -- 8.4. Customer service standards and regulationspart III. Future opportunities and the case for DH/C. 9. Comparing DH/C with individual heating/cooling systems -- 9.1. Introduction -- 9.2. Environmental -- 9.3. Economic -- 9.4. Security of supply and safety -- 9.5. The nature of the market and customer choice and experience -- 9.6. DH/C projects in the five case model10. Recent developments and future opportunities -- 10.1. Introduction -- 10.2. Additional benefits from thermal storage with more renewable electricity generation -- 10.3. Hydrogen -- 10.4. Carbon capture usage and storage -- 10.5. Small modular nuclear reactors -- 10.6. District cooling -- 10.7. Linking of DH and DC -- 10.8. Ambient networks -- 10.9. Zoning policy -- 10.10. Opportunities to reduce DH capital costs11. Summary--the case for DH/C as part of the national energy strategy -- 11.1. Summary of the chapters -- 11.2. The case for DH/C -- 11.3. Knowledge sharing.The provision of low carbon heating and cooling is recognised as one of the hardest challenges to solve in combating climate change. This reference text is designed to impart the essential knowledge needed for new entrants to make a rapid contribution in this growing industry. Part 1 provides the historical background to the development of district heating and cooling (DH/C) and a description of the technology. Part 2 describes the engineering design of each element of the system: the heating/cooling system within the buildings, the interface equipment between the building and the heating/cooling networks, the heating/cooling network itself, and the Energy Centre where the low carbon energy is produced. Part 3 considers how DH/C compares with other low carbon options and how newer technologies and techniques may be applied in changing market conditions. Part of IOP Series in Renewable and Sustainable Power.Engineers who are experienced in building services or other branches of mechanical engineering and want an introductory text to understand the engineering of district heating and latest design thinking Postgraduate students in energy engineering, particularly as supplementary reading for modules on DH, or as a core text for one-week courses on DH for engineers or an introductory one-day course for non-specialists.Also available in print.Mode of access: World Wide Web.System requirements: Adobe Acrobat Reader, EPUB reader, or Kindle reader.Paul Woods is a Chartered Mechanical and Energy Engineer specialising in district heating, CHP and sustainable energy for buildings. Previously, he was Technical Director at Parsons Brinckerhoff (now WSP) and AECOM, leading their work on District Heating and Cooling. He has degrees from Cambridge and Cranfield Universities and is a Fellow of the IMechE, CIBSE and the Energy Institute. He was presented with the CHP Champion award in 2012 by the CHP Association (now the ADE). He was the author of the first edition of the CIBSE/ADE Code of Practice for Heat Networks in the UK.Title from PDF title page (viewed on January 4, 2024).
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