An Integrated Heat Recovery System Design for a Fuel Cell Buggy With Hydrogen Preheating and Thermoelectric Generator

This study presents an integrated heat recovery-proton exchange membrane (IHR-PEM) fuel cell system designed for lightweight vehicles powered by a 2 kW PEM fuel cell. The IHR system captures waste heat through multiple heat exchangers and integrates thermoelectric generator (TEG) modules for electri...

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Published in:FUEL CELLS
Main Authors: Hamdan, M. H.; Mohamed, W. A. N. W.; Aminudin, M. A.; Kamarudin, S. K.; Zakaria, I. A.; Singh, B.
Format: Article
Language:English
Published: WILEY-V C H VERLAG GMBH 2025
Subjects:
Online Access:https://www-webofscience-com.uitm.idm.oclc.org/wos/woscc/full-record/WOS:001405557900001
author Hamdan
M. H.; Mohamed
W. A. N. W.; Aminudin
M. A.; Kamarudin
S. K.; Zakaria
I. A.; Singh, B.
spellingShingle Hamdan
M. H.; Mohamed
W. A. N. W.; Aminudin
M. A.; Kamarudin
S. K.; Zakaria
I. A.; Singh, B.
An Integrated Heat Recovery System Design for a Fuel Cell Buggy With Hydrogen Preheating and Thermoelectric Generator
Electrochemistry; Energy & Fuels
author_facet Hamdan
M. H.; Mohamed
W. A. N. W.; Aminudin
M. A.; Kamarudin
S. K.; Zakaria
I. A.; Singh, B.
author_sort Hamdan
spelling Hamdan, M. H.; Mohamed, W. A. N. W.; Aminudin, M. A.; Kamarudin, S. K.; Zakaria, I. A.; Singh, B.
An Integrated Heat Recovery System Design for a Fuel Cell Buggy With Hydrogen Preheating and Thermoelectric Generator
FUEL CELLS
English
Article
This study presents an integrated heat recovery-proton exchange membrane (IHR-PEM) fuel cell system designed for lightweight vehicles powered by a 2 kW PEM fuel cell. The IHR system captures waste heat through multiple heat exchangers and integrates thermoelectric generator (TEG) modules for electrical regeneration and hydrogen preheating, enhancing PEM fuel cell performance. Utilizing the temperature gradient between the fuel cell's exhaust and the ambient environment, the system effectively converts waste heat into electrical energy, improving energy efficiency. Experimental evaluation under various operating parameters, including cruising speeds, PEM fuel cell loads, rejuvenation conditions, and electrical regeneration strategies, demonstrated the system's effectiveness. Results revealed waste heat absorption of up to 8.5 W and hydrogen preheating by 19 degrees C, leading to an 11.5% increase in electrical power production and a maximum PEM fuel cell efficiency improvement of 11%. This study advances waste heat recovery (WHR) technologies in fuel cell-based transportation, significantly improving energy efficiency and reducing carbon emissions. The findings provide valuable insights into the integration of regenerative WHR systems for lightweight vehicles, fostering the development of sustainable and energy-efficient transportation solutions.
WILEY-V C H VERLAG GMBH
1615-6846
1615-6854
2025
25
1
10.1002/fuce.202400037
Electrochemistry; Energy & Fuels

WOS:001405557900001
https://www-webofscience-com.uitm.idm.oclc.org/wos/woscc/full-record/WOS:001405557900001
title An Integrated Heat Recovery System Design for a Fuel Cell Buggy With Hydrogen Preheating and Thermoelectric Generator
title_short An Integrated Heat Recovery System Design for a Fuel Cell Buggy With Hydrogen Preheating and Thermoelectric Generator
title_full An Integrated Heat Recovery System Design for a Fuel Cell Buggy With Hydrogen Preheating and Thermoelectric Generator
title_fullStr An Integrated Heat Recovery System Design for a Fuel Cell Buggy With Hydrogen Preheating and Thermoelectric Generator
title_full_unstemmed An Integrated Heat Recovery System Design for a Fuel Cell Buggy With Hydrogen Preheating and Thermoelectric Generator
title_sort An Integrated Heat Recovery System Design for a Fuel Cell Buggy With Hydrogen Preheating and Thermoelectric Generator
container_title FUEL CELLS
language English
format Article
description This study presents an integrated heat recovery-proton exchange membrane (IHR-PEM) fuel cell system designed for lightweight vehicles powered by a 2 kW PEM fuel cell. The IHR system captures waste heat through multiple heat exchangers and integrates thermoelectric generator (TEG) modules for electrical regeneration and hydrogen preheating, enhancing PEM fuel cell performance. Utilizing the temperature gradient between the fuel cell's exhaust and the ambient environment, the system effectively converts waste heat into electrical energy, improving energy efficiency. Experimental evaluation under various operating parameters, including cruising speeds, PEM fuel cell loads, rejuvenation conditions, and electrical regeneration strategies, demonstrated the system's effectiveness. Results revealed waste heat absorption of up to 8.5 W and hydrogen preheating by 19 degrees C, leading to an 11.5% increase in electrical power production and a maximum PEM fuel cell efficiency improvement of 11%. This study advances waste heat recovery (WHR) technologies in fuel cell-based transportation, significantly improving energy efficiency and reducing carbon emissions. The findings provide valuable insights into the integration of regenerative WHR systems for lightweight vehicles, fostering the development of sustainable and energy-efficient transportation solutions.
publisher WILEY-V C H VERLAG GMBH
issn 1615-6846
1615-6854
publishDate 2025
container_volume 25
container_issue 1
doi_str_mv 10.1002/fuce.202400037
topic Electrochemistry; Energy & Fuels
topic_facet Electrochemistry; Energy & Fuels
accesstype
id WOS:001405557900001
url https://www-webofscience-com.uitm.idm.oclc.org/wos/woscc/full-record/WOS:001405557900001
record_format wos
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