9780367198428_oachapter19.pdf

The use of renewable energy sources for multi-generation plants (plants with multiple products, e.g., heat, power, cooling, fresh water) is beneficial to mitigating climate change and to achieving sustainable development. Concentrated solar power plants take advantage of producing heat that can be u...

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Έκδοση: Taylor & Francis 2020
id oapen-20.500.12657-39513
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spelling oapen-20.500.12657-395132020-08-03T08:36:23Z Chapter 19 Concentrated solar energy driven multi-generation systems based on the organic Rankine cycle technology Desai, Nishith Haglind, Fredrik carbon energy nuclear renewable technologies solar power wind power clean coal TQ PS THX bic Book Industry Communication::P Mathematics & science::PS Biology, life sciences bic Book Industry Communication::T Technology, engineering, agriculture::TQ Environmental science, engineering & technology The use of renewable energy sources for multi-generation plants (plants with multiple products, e.g., heat, power, cooling, fresh water) is beneficial to mitigating climate change and to achieving sustainable development. Concentrated solar power plants take advantage of producing heat that can be used for power generation, thermal energy driven refrigeration, desalination, and other heating purposes. Moreover, concentrated solar power plants combined with thermal energy storage provide a cost-effective solution for long-term storage and solve the mismatch problem between supply and demand. For small to medium-scale applications (a few kWe to a few MWe), organic Rankine cycle power systems have been demonstrated to be efficient solutions for multi-generation plants. In this chapter, different concentrated solar power technologies for small to medium-scale applications are reviewed, and multi-generation systems based on the organic Rankine cycle technology are presented. Furthermore, the technical and economic viabilities of using concentrated solar energy powered organic Rankine cycle plants for multi-generation are discussed. Issues related to the system design and integration with different systems (e.g., vapor absorption system for cooling, multi-effect desalination for fresh water generation, etc.) are also addressed. 2020-06-11T11:30:17Z 2020-06-11T11:30:17Z 2020 chapter http://library.oapen.org/handle/20.500.12657/39513 eng application/pdf Attribution-NonCommercial-NoDerivatives 4.0 International 9780367198428_oachapter19.pdf Taylor & Francis Advances in Carbon Management Technologies CRC Press 7b3c7b10-5b1e-40b3-860e-c6dd5197f0bb 317a8312-e463-4650-856e-3bdcb1e8ec33 CRC Press 18 open access
institution OAPEN
collection DSpace
language English
description The use of renewable energy sources for multi-generation plants (plants with multiple products, e.g., heat, power, cooling, fresh water) is beneficial to mitigating climate change and to achieving sustainable development. Concentrated solar power plants take advantage of producing heat that can be used for power generation, thermal energy driven refrigeration, desalination, and other heating purposes. Moreover, concentrated solar power plants combined with thermal energy storage provide a cost-effective solution for long-term storage and solve the mismatch problem between supply and demand. For small to medium-scale applications (a few kWe to a few MWe), organic Rankine cycle power systems have been demonstrated to be efficient solutions for multi-generation plants. In this chapter, different concentrated solar power technologies for small to medium-scale applications are reviewed, and multi-generation systems based on the organic Rankine cycle technology are presented. Furthermore, the technical and economic viabilities of using concentrated solar energy powered organic Rankine cycle plants for multi-generation are discussed. Issues related to the system design and integration with different systems (e.g., vapor absorption system for cooling, multi-effect desalination for fresh water generation, etc.) are also addressed.
title 9780367198428_oachapter19.pdf
spellingShingle 9780367198428_oachapter19.pdf
title_short 9780367198428_oachapter19.pdf
title_full 9780367198428_oachapter19.pdf
title_fullStr 9780367198428_oachapter19.pdf
title_full_unstemmed 9780367198428_oachapter19.pdf
title_sort 9780367198428_oachapter19.pdf
publisher Taylor & Francis
publishDate 2020
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