Numerical analysis on the anode active thickness using quasi-three-dimensional solid oxide fuel cell model

A quasi-three-dimensional solid oxide fuel cell (SOFC) model reduces the computational cost by strategically ignoring the thinnest direction in an SOFC by incorporating a chargetransfer current density model to represent its active thickness in electrodes to represent its complex phenomenon in an el...

Full description

Bibliographic Details
Main Authors:	Wee Choon Tan, Wee Choon Tan, Eng Aik Lim, Eng Aik Lim, Abd Rahman, Hamimah, Abdul Samat, Abdullah, Cheen Sean Oon, Cheen Sean Oon
Format:	Article
Language:	English
Published:	Elsevier 2023
Subjects:	T Technology (General)
Online Access:	http://eprints.uthm.edu.my/10049/1/J16114_3b130bf0316eff0edf9e09364560c731.pdf

_version_	1796870085344755712
author	Wee Choon Tan, Wee Choon Tan Eng Aik Lim, Eng Aik Lim Abd Rahman, Hamimah Abdul Samat, Abdullah Cheen Sean Oon, Cheen Sean Oon
author_facet	Wee Choon Tan, Wee Choon Tan Eng Aik Lim, Eng Aik Lim Abd Rahman, Hamimah Abdul Samat, Abdullah Cheen Sean Oon, Cheen Sean Oon
author_sort	Wee Choon Tan, Wee Choon Tan
collection	UTHM
description	A quasi-three-dimensional solid oxide fuel cell (SOFC) model reduces the computational cost by strategically ignoring the thinnest direction in an SOFC by incorporating a chargetransfer current density model to represent its active thickness in electrodes to represent its complex phenomenon in an electrode. Therefore, high accuracy of this charge-transfer current density model is required. The concentration loss is mathematically related to the charge-transfer current density based on the dusty-gas model together with activation and ohmic losses in this work. The numerical results from this study are validated with the experimental results. The influence of anode's thickness towards anode active thickness is studied with the anode thickness of 5, 10, 50, 100, 500 and 1000 mm. It is found that the quasi-three-dimensional SOFC model is capable of analysing SOFC with a sufficiently thick electrode. Also, a thick electrode and a high average current density result in a thin active thickness.
first_indexed	2024-03-05T22:04:19Z
format	Article
id	uthm.eprints-10049
institution	Universiti Tun Hussein Onn Malaysia
language	English
last_indexed	2024-03-05T22:04:19Z
publishDate	2023
publisher	Elsevier
record_format	dspace
spelling	uthm.eprints-100492023-10-11T03:22:01Z http://eprints.uthm.edu.my/10049/ Numerical analysis on the anode active thickness using quasi-three-dimensional solid oxide fuel cell model Wee Choon Tan, Wee Choon Tan Eng Aik Lim, Eng Aik Lim Abd Rahman, Hamimah Abdul Samat, Abdullah Cheen Sean Oon, Cheen Sean Oon T Technology (General) A quasi-three-dimensional solid oxide fuel cell (SOFC) model reduces the computational cost by strategically ignoring the thinnest direction in an SOFC by incorporating a chargetransfer current density model to represent its active thickness in electrodes to represent its complex phenomenon in an electrode. Therefore, high accuracy of this charge-transfer current density model is required. The concentration loss is mathematically related to the charge-transfer current density based on the dusty-gas model together with activation and ohmic losses in this work. The numerical results from this study are validated with the experimental results. The influence of anode's thickness towards anode active thickness is studied with the anode thickness of 5, 10, 50, 100, 500 and 1000 mm. It is found that the quasi-three-dimensional SOFC model is capable of analysing SOFC with a sufficiently thick electrode. Also, a thick electrode and a high average current density result in a thin active thickness. Elsevier 2023 Article PeerReviewed text en http://eprints.uthm.edu.my/10049/1/J16114_3b130bf0316eff0edf9e09364560c731.pdf Wee Choon Tan, Wee Choon Tan and Eng Aik Lim, Eng Aik Lim and Abd Rahman, Hamimah and Abdul Samat, Abdullah and Cheen Sean Oon, Cheen Sean Oon (2023) Numerical analysis on the anode active thickness using quasi-three-dimensional solid oxide fuel cell model. ScienceDirect. pp. 1-16. https://doi.org/10.1016/j.ijhydene.2023.01.361
spellingShingle	T Technology (General) Wee Choon Tan, Wee Choon Tan Eng Aik Lim, Eng Aik Lim Abd Rahman, Hamimah Abdul Samat, Abdullah Cheen Sean Oon, Cheen Sean Oon Numerical analysis on the anode active thickness using quasi-three-dimensional solid oxide fuel cell model
title	Numerical analysis on the anode active thickness using quasi-three-dimensional solid oxide fuel cell model
title_full	Numerical analysis on the anode active thickness using quasi-three-dimensional solid oxide fuel cell model
title_fullStr	Numerical analysis on the anode active thickness using quasi-three-dimensional solid oxide fuel cell model
title_full_unstemmed	Numerical analysis on the anode active thickness using quasi-three-dimensional solid oxide fuel cell model
title_short	Numerical analysis on the anode active thickness using quasi-three-dimensional solid oxide fuel cell model
title_sort	numerical analysis on the anode active thickness using quasi three dimensional solid oxide fuel cell model
topic	T Technology (General)
url	http://eprints.uthm.edu.my/10049/1/J16114_3b130bf0316eff0edf9e09364560c731.pdf
work_keys_str_mv	AT weechoontanweechoontan numericalanalysisontheanodeactivethicknessusingquasithreedimensionalsolidoxidefuelcellmodel AT engaiklimengaiklim numericalanalysisontheanodeactivethicknessusingquasithreedimensionalsolidoxidefuelcellmodel AT abdrahmanhamimah numericalanalysisontheanodeactivethicknessusingquasithreedimensionalsolidoxidefuelcellmodel AT abdulsamatabdullah numericalanalysisontheanodeactivethicknessusingquasithreedimensionalsolidoxidefuelcellmodel AT cheenseanooncheenseanoon numericalanalysisontheanodeactivethicknessusingquasithreedimensionalsolidoxidefuelcellmodel

Numerical analysis on the anode active thickness using quasi-three-dimensional solid oxide fuel cell model

Similar Items