Study of thermoelectric power generator under transient and steady state conditions

The thermoelectric effect is first discovered in the early 19th Century by Thomas Johann Seebeck and Jean Athanase Peltier. The thermoelectric generators had low commercial value due to its low thermoelectric conversion efficiency and figure of merit. The research on thermoelectric generators gained...

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Main Author: Kew, Guan Yuan
Other Authors: Leong Kai Choong
Format: Final Year Project
Language:English
Published: 2017
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Online Access:http://hdl.handle.net/10356/72325
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Institution: Nanyang Technological University
Language: English
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spelling sg-ntu-dr.10356-723252023-03-04T19:37:59Z Study of thermoelectric power generator under transient and steady state conditions Kew, Guan Yuan Leong Kai Choong Anutosh Chakraborty School of Mechanical and Aerospace Engineering DRNTU::Engineering The thermoelectric effect is first discovered in the early 19th Century by Thomas Johann Seebeck and Jean Athanase Peltier. The thermoelectric generators had low commercial value due to its low thermoelectric conversion efficiency and figure of merit. The research on thermoelectric generators gained traction in recent years due to the advancement in technology to create more efficient modules and the increasing concern with our depleting fossil fuels along with its environmental impact. The aim of the project is to study the performance of the thermoelectric generator under steady state and transient state condition as well as to improve the thermoelectric conversion efficiency of the TEG system and test a new segmented TEG module. The result of the experiments showed the effect of the maximum power transfer had increased the thermoelectric conversion efficiency of TEG system by 45.92% and the maximum heat recovery efficiency at transient state condition had increased by 12.47%. The results had also showed the thermoelectric conversion efficiency of different TEG modules at steady state and transient state. At low temperature difference, the thermoelectric conversion efficiency of pure TEG module, Bismuth Telluride, performed 50% to 100% more efficiently as compared to segmented TEG module, Bismuth Telluride and Lead Tin Telluride. Due to the limited temperature range of the TEG system, the segmented TEG module was unable to perform at its full potential. However, there were promising results showing that the segmented TEG module was able to achieve higher thermoelectric conversion efficiency as the segmented TEG module continued to increase linearly at an input voltage of 260 V while the pure TEG module peaked and declined at an input voltage of 250 V. Bachelor of Engineering (Mechanical Engineering) 2017-06-06T05:53:23Z 2017-06-06T05:53:23Z 2017 Final Year Project (FYP) http://hdl.handle.net/10356/72325 en Nanyang Technological University 78 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
spellingShingle DRNTU::Engineering
Kew, Guan Yuan
Study of thermoelectric power generator under transient and steady state conditions
description The thermoelectric effect is first discovered in the early 19th Century by Thomas Johann Seebeck and Jean Athanase Peltier. The thermoelectric generators had low commercial value due to its low thermoelectric conversion efficiency and figure of merit. The research on thermoelectric generators gained traction in recent years due to the advancement in technology to create more efficient modules and the increasing concern with our depleting fossil fuels along with its environmental impact. The aim of the project is to study the performance of the thermoelectric generator under steady state and transient state condition as well as to improve the thermoelectric conversion efficiency of the TEG system and test a new segmented TEG module. The result of the experiments showed the effect of the maximum power transfer had increased the thermoelectric conversion efficiency of TEG system by 45.92% and the maximum heat recovery efficiency at transient state condition had increased by 12.47%. The results had also showed the thermoelectric conversion efficiency of different TEG modules at steady state and transient state. At low temperature difference, the thermoelectric conversion efficiency of pure TEG module, Bismuth Telluride, performed 50% to 100% more efficiently as compared to segmented TEG module, Bismuth Telluride and Lead Tin Telluride. Due to the limited temperature range of the TEG system, the segmented TEG module was unable to perform at its full potential. However, there were promising results showing that the segmented TEG module was able to achieve higher thermoelectric conversion efficiency as the segmented TEG module continued to increase linearly at an input voltage of 260 V while the pure TEG module peaked and declined at an input voltage of 250 V.
author2 Leong Kai Choong
author_facet Leong Kai Choong
Kew, Guan Yuan
format Final Year Project
author Kew, Guan Yuan
author_sort Kew, Guan Yuan
title Study of thermoelectric power generator under transient and steady state conditions
title_short Study of thermoelectric power generator under transient and steady state conditions
title_full Study of thermoelectric power generator under transient and steady state conditions
title_fullStr Study of thermoelectric power generator under transient and steady state conditions
title_full_unstemmed Study of thermoelectric power generator under transient and steady state conditions
title_sort study of thermoelectric power generator under transient and steady state conditions
publishDate 2017
url http://hdl.handle.net/10356/72325
_version_ 1759857403003666432