Computational fluid dynamics analysis of an innovative start-up method of high temperature fuel cells using dynamic 3d model

The article presents a numerical analysis of an innovative method for starting systems based on high temperature fuel cells. The possibility of preheating the fuel cell stacks from the cold state to the nominal working conditions encounters several limitations related to heat transfer and stability...

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Main Authors: Kupecki Jakub, Mich Dawid, Motylinski Konrad
Format: Article
Language:English
Published: Sciendo 2017-03-01
Series:Polish Journal of Chemical Technology
Subjects:
cfd
Online Access:https://doi.org/10.1515/pjct-2017-0010
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spelling doaj-251dcc2818fa4ded8c30e44a854268582021-09-05T13:59:43ZengSciendoPolish Journal of Chemical Technology1899-47412017-03-01191677310.1515/pjct-2017-0010pjct-2017-0010Computational fluid dynamics analysis of an innovative start-up method of high temperature fuel cells using dynamic 3d modelKupecki Jakub0Mich Dawid1Motylinski Konrad2Instytut Energetyki, Zakład Procesów Cieplnych, Augustówka 36, 02-981, Warszawa, PolandInstytut Energetyki, Zakład Procesów Cieplnych, Augustówka 36, 02-981, Warszawa, PolandInstytut Energetyki, Zakład Procesów Cieplnych, Augustówka 36, 02-981, Warszawa, PolandThe article presents a numerical analysis of an innovative method for starting systems based on high temperature fuel cells. The possibility of preheating the fuel cell stacks from the cold state to the nominal working conditions encounters several limitations related to heat transfer and stability of materials. The lack of rapid and safe start-up methods limits the proliferation of MCFCs and SOFCs. For that reason, an innovative method was developed and verified using the numerical analysis presented in the paper. A dynamic 3D model was developed that enables thermo-fluidic investigations and determination of measures for shortening the preheating time of the high temperature fuel cell stacks. The model was implemented in ANSYS Fluent computational fluid dynamic (CFD) software and was used for verification of the proposed start-up method. The SOFC was chosen as a reference fuel cell technology for the study. Results obtained from the study are presented and discussed.https://doi.org/10.1515/pjct-2017-0010cfddynamic modelingstart-upsofc
collection DOAJ
language English
format Article
sources DOAJ
author Kupecki Jakub
Mich Dawid
Motylinski Konrad
spellingShingle Kupecki Jakub
Mich Dawid
Motylinski Konrad
Computational fluid dynamics analysis of an innovative start-up method of high temperature fuel cells using dynamic 3d model
Polish Journal of Chemical Technology
cfd
dynamic modeling
start-up
sofc
author_facet Kupecki Jakub
Mich Dawid
Motylinski Konrad
author_sort Kupecki Jakub
title Computational fluid dynamics analysis of an innovative start-up method of high temperature fuel cells using dynamic 3d model
title_short Computational fluid dynamics analysis of an innovative start-up method of high temperature fuel cells using dynamic 3d model
title_full Computational fluid dynamics analysis of an innovative start-up method of high temperature fuel cells using dynamic 3d model
title_fullStr Computational fluid dynamics analysis of an innovative start-up method of high temperature fuel cells using dynamic 3d model
title_full_unstemmed Computational fluid dynamics analysis of an innovative start-up method of high temperature fuel cells using dynamic 3d model
title_sort computational fluid dynamics analysis of an innovative start-up method of high temperature fuel cells using dynamic 3d model
publisher Sciendo
series Polish Journal of Chemical Technology
issn 1899-4741
publishDate 2017-03-01
description The article presents a numerical analysis of an innovative method for starting systems based on high temperature fuel cells. The possibility of preheating the fuel cell stacks from the cold state to the nominal working conditions encounters several limitations related to heat transfer and stability of materials. The lack of rapid and safe start-up methods limits the proliferation of MCFCs and SOFCs. For that reason, an innovative method was developed and verified using the numerical analysis presented in the paper. A dynamic 3D model was developed that enables thermo-fluidic investigations and determination of measures for shortening the preheating time of the high temperature fuel cell stacks. The model was implemented in ANSYS Fluent computational fluid dynamic (CFD) software and was used for verification of the proposed start-up method. The SOFC was chosen as a reference fuel cell technology for the study. Results obtained from the study are presented and discussed.
topic cfd
dynamic modeling
start-up
sofc
url https://doi.org/10.1515/pjct-2017-0010
work_keys_str_mv AT kupeckijakub computationalfluiddynamicsanalysisofaninnovativestartupmethodofhightemperaturefuelcellsusingdynamic3dmodel
AT michdawid computationalfluiddynamicsanalysisofaninnovativestartupmethodofhightemperaturefuelcellsusingdynamic3dmodel
AT motylinskikonrad computationalfluiddynamicsanalysisofaninnovativestartupmethodofhightemperaturefuelcellsusingdynamic3dmodel
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