Combined adsorption - based cooling and water production

Over the last few decades, researchers and scientists have been working on improvement in adsorption refrigeration technology to curb environmental problems. Funds have been allocated to school of MAE to develop an adsorption chiller by harvesting the waste heat generated by ship engines. In this pr...

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Main Author: Tan, Qun Feng
Other Authors: Leong Kai Choong
Format: Final Year Project
Language:English
Published: 2015
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Online Access:http://hdl.handle.net/10356/64066
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Institution: Nanyang Technological University
Language: English
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spelling sg-ntu-dr.10356-640662023-03-04T19:01:46Z Combined adsorption - based cooling and water production Tan, Qun Feng Leong Kai Choong School of Mechanical and Aerospace Engineering Anutosh Chakraborty DRNTU::Engineering::Mechanical engineering::Energy conservation Over the last few decades, researchers and scientists have been working on improvement in adsorption refrigeration technology to curb environmental problems. Funds have been allocated to school of MAE to develop an adsorption chiller by harvesting the waste heat generated by ship engines. In this project, a silica gel-water pair adsorption chiller was experimentally investigated. The experiments were first started with preliminary adsorbent bed heat transfer tests. The tests were conducted by utilising silica gel of different sizes to determine the required time for the adsorbent bed to achieve steady state in both cooling and heating processes. Next, I conducted full adsorption refrigeration cycle experiments with different particle size silica gels and different hot source temperatures while keeping the cooling water bath temperature constant. Under operating conditions of crushed silica gel adsorbent bed, 90ᵒC hot water bath temperature, 15ᵒC cooling water bath temperature, generation lift of 58.28ᵒC, 5.777×10-3 kg/s mass flow rate of water through the cooling and hot water baths, 7.669×10-3 kg/s mass flow rate of chilled water, a cooling capacity of 112.67 W, SCP of 75.11 W/kg and COP of 0.5087 can be achieved. Bachelor of Engineering (Mechanical Engineering) 2015-05-22T08:06:41Z 2015-05-22T08:06:41Z 2015 2015 Final Year Project (FYP) http://hdl.handle.net/10356/64066 en Nanyang Technological University 92 p. application/pdf
institution Nanyang Technological University
building NTU Library
continent Asia
country Singapore
Singapore
content_provider NTU Library
collection DR-NTU
language English
topic DRNTU::Engineering::Mechanical engineering::Energy conservation
spellingShingle DRNTU::Engineering::Mechanical engineering::Energy conservation
Tan, Qun Feng
Combined adsorption - based cooling and water production
description Over the last few decades, researchers and scientists have been working on improvement in adsorption refrigeration technology to curb environmental problems. Funds have been allocated to school of MAE to develop an adsorption chiller by harvesting the waste heat generated by ship engines. In this project, a silica gel-water pair adsorption chiller was experimentally investigated. The experiments were first started with preliminary adsorbent bed heat transfer tests. The tests were conducted by utilising silica gel of different sizes to determine the required time for the adsorbent bed to achieve steady state in both cooling and heating processes. Next, I conducted full adsorption refrigeration cycle experiments with different particle size silica gels and different hot source temperatures while keeping the cooling water bath temperature constant. Under operating conditions of crushed silica gel adsorbent bed, 90ᵒC hot water bath temperature, 15ᵒC cooling water bath temperature, generation lift of 58.28ᵒC, 5.777×10-3 kg/s mass flow rate of water through the cooling and hot water baths, 7.669×10-3 kg/s mass flow rate of chilled water, a cooling capacity of 112.67 W, SCP of 75.11 W/kg and COP of 0.5087 can be achieved.
author2 Leong Kai Choong
author_facet Leong Kai Choong
Tan, Qun Feng
format Final Year Project
author Tan, Qun Feng
author_sort Tan, Qun Feng
title Combined adsorption - based cooling and water production
title_short Combined adsorption - based cooling and water production
title_full Combined adsorption - based cooling and water production
title_fullStr Combined adsorption - based cooling and water production
title_full_unstemmed Combined adsorption - based cooling and water production
title_sort combined adsorption - based cooling and water production
publishDate 2015
url http://hdl.handle.net/10356/64066
_version_ 1759856693572796416