PEM fuel cell geometry optimisation using mathematical modeling

There have been extensive efforts devoted to proton exchangemembrane (PEM) fuel cell modeling and simulations to study fuel cellperformance. Although fuel cells have been successfully demonstrated inboth automotive and stationary power applications, there are numeroustechnical and logistic issues th...

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Main Authors: E Carcadea, I Stefanescu, R E Ionete, H Ene, D B Ingham, L Ma
Format: Article
Language:English
Published: Multi-Science Publishing 2008-09-01
Series:International Journal of Multiphysics
Online Access:http://journal.multiphysics.org/index.php/IJM/article/view/62
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spelling doaj-c992b077c5014bc886fa396159a819bd2020-11-24T22:37:18ZengMulti-Science PublishingInternational Journal of Multiphysics1750-95482048-39612008-09-012310.1260/17509540878692746286PEM fuel cell geometry optimisation using mathematical modelingE Carcadea0I Stefanescu1R E Ionete2H Ene3D B Ingham4L Ma5National Institute of Cryogenics & Isotopic Technologies, 240050 Rm.Valcea, RomaniaNational Institute of Cryogenics & Isotopic Technologies, 240050 Rm.Valcea, RomaniaNational Institute of Cryogenics & Isotopic Technologies, 240050 Rm.Valcea, Romania,Institute of Mathematics of the Romanian Academy, 014700 Bucharest, Romania,University of Leeds, Centre for Computational Fluid Dynamics, LS2 9JT Leeds, UKUniversity of Leeds, Centre for Computational Fluid Dynamics, LS2 9JT Leeds, UKThere have been extensive efforts devoted to proton exchangemembrane (PEM) fuel cell modeling and simulations to study fuel cellperformance. Although fuel cells have been successfully demonstrated inboth automotive and stationary power applications, there are numeroustechnical and logistic issues that still have to be solved, such asperformance, cost, and system issues. A model based on steady,isothermal, electrochemical, three-dimensional computational fluiddynamics using the FLUENT CFD software package has been developedto predict the fluid flow pattern within a PEMFC. Three types of flow field areinvestigated with serpentine, parallel or spiral channels in order todetermine the best configuration for the fuel cell performance. In thiscontext, the paper presents the results that we have obtained and, as aconclusion of the simulations, we have achieved the best configurationregarding the performance for the fuel cell with serpentine channels. Weconsider the mathematical and computational modeling as an importantalternative for fuel cell optimization and for the exploitation/experimentationin cost reduction.http://journal.multiphysics.org/index.php/IJM/article/view/62
collection DOAJ
language English
format Article
sources DOAJ
author E Carcadea
I Stefanescu
R E Ionete
H Ene
D B Ingham
L Ma
spellingShingle E Carcadea
I Stefanescu
R E Ionete
H Ene
D B Ingham
L Ma
PEM fuel cell geometry optimisation using mathematical modeling
International Journal of Multiphysics
author_facet E Carcadea
I Stefanescu
R E Ionete
H Ene
D B Ingham
L Ma
author_sort E Carcadea
title PEM fuel cell geometry optimisation using mathematical modeling
title_short PEM fuel cell geometry optimisation using mathematical modeling
title_full PEM fuel cell geometry optimisation using mathematical modeling
title_fullStr PEM fuel cell geometry optimisation using mathematical modeling
title_full_unstemmed PEM fuel cell geometry optimisation using mathematical modeling
title_sort pem fuel cell geometry optimisation using mathematical modeling
publisher Multi-Science Publishing
series International Journal of Multiphysics
issn 1750-9548
2048-3961
publishDate 2008-09-01
description There have been extensive efforts devoted to proton exchangemembrane (PEM) fuel cell modeling and simulations to study fuel cellperformance. Although fuel cells have been successfully demonstrated inboth automotive and stationary power applications, there are numeroustechnical and logistic issues that still have to be solved, such asperformance, cost, and system issues. A model based on steady,isothermal, electrochemical, three-dimensional computational fluiddynamics using the FLUENT CFD software package has been developedto predict the fluid flow pattern within a PEMFC. Three types of flow field areinvestigated with serpentine, parallel or spiral channels in order todetermine the best configuration for the fuel cell performance. In thiscontext, the paper presents the results that we have obtained and, as aconclusion of the simulations, we have achieved the best configurationregarding the performance for the fuel cell with serpentine channels. Weconsider the mathematical and computational modeling as an importantalternative for fuel cell optimization and for the exploitation/experimentationin cost reduction.
url http://journal.multiphysics.org/index.php/IJM/article/view/62
work_keys_str_mv AT ecarcadea pemfuelcellgeometryoptimisationusingmathematicalmodeling
AT istefanescu pemfuelcellgeometryoptimisationusingmathematicalmodeling
AT reionete pemfuelcellgeometryoptimisationusingmathematicalmodeling
AT hene pemfuelcellgeometryoptimisationusingmathematicalmodeling
AT dbingham pemfuelcellgeometryoptimisationusingmathematicalmodeling
AT lma pemfuelcellgeometryoptimisationusingmathematicalmodeling
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