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P. Costamagna (2001)
Design and part-load performance of a hybrid system based on a solid oxide fuel cell reactor and a micro gas turbineFuel and Energy Abstracts, 43
Chih-Kuang Lin, T. Chen, Y. Chyou, Lieh-Kwang Chiang (2007)
Thermal stress analysis of a planar SOFC stackJournal of Power Sources, 164
T. Nishino, H. Iwai, Kenjiro Suzuki (2006)
Comprehensive Numerical Modeling and Analysis of a Cell-Based Indirect Internal Reforming Tubular SOFCJournal of Fuel Cell Science and Technology, 3
B. Sundén, M. Faghri
Transport Phenomena in Fuel Cells
S. Kakaç, A. Pramuanjaroenkij, Xiangyang Zhou (2007)
A review of numerical modeling of solid oxide fuel cellsInternational Journal of Hydrogen Energy, 32
I. Riess, M. Goedickemeier, L. Gauckler (1996)
Characterization of solid oxide fuel cells based on solid electrolytes or mixed ionic electronic conductorsSolid State Ionics, 90
N. Massarotti, P. Nithiarasu, A. Carotenuto (2003)
Microscopic and macroscopic approach for natural convection in enclosures filled with fluid saturated porous mediumInternational Journal of Numerical Methods for Heat & Fluid Flow, 13
E. Riensche, E. Achenbach, D. Froning, M. Haines, W. Heidug, Ahmet Lokurlu, S. Andrian (2000)
Clean combined-cycle SOFC power plant — cell modelling and process analysisJournal of Power Sources, 86
P. Aguiar, C. Adjiman, N. Brandon (2004)
Anode-supported intermediate temperature direct internal reforming solid oxide fuel cell. I: model-based steady-state performanceJournal of Power Sources, 138
N. Massarotti, P. Nithiarasu, O.C. Zienkiewicz
Natural convection in porous medium‐fluid interface problems
S. Chan, K. Khor, Z. Xia (2001)
A complete polarization model of a solid oxide fuel cell and its sensitivity to the change of cell component thicknessJournal of Power Sources, 93
X. Xue, Jiong Tang, N. Sammes, Yanhai Du (2005)
Dynamic modeling of single tubular SOFC combining heat/mass transfer and electrochemical reaction effectsJournal of Power Sources, 142
E. Cussler (1984)
Diffusion: Mass Transfer in Fluid Systems
O. Zienkiewicz, R. Taylor, P. Nithiarasu (2005)
The Finite Element Method for Fluid Dynamics
E. Hecht, G. Gupta, Huayang Zhu, A. Dean, R. Kee, L. Maier, O. Deutschmann (2005)
Methane reforming kinetics within a Ni–YSZ SOFC anode supportApplied Catalysis A-general, 295
P. Costamagna (1997)
The benefit of solid oxide fuel cells with integrated air pre-heaterJournal of Power Sources, 69
S. Singhal, K. Kendall (2003)
High temperature solid oxide fuel cells : fundamentals, design and applicatons
D. Bhattacharyya, R. Rengaswamy, C. Finnerty (2009)
Dynamic modeling and validation studies of a tubular solid oxide fuel cellChemical Engineering Science, 64
F. Arpino, N. Massarotti, A. Mauro, P. Nithiarasu (2009)
Artificial Compressibility-Based CBS Scheme for the Solution of the Generalized Porous Medium ModelNumerical Heat Transfer, Part B: Fundamentals, 55
N. Autissier, Diego Larrain, J. herle, D. Favrat (2004)
CFD simulation tool for solid oxide fuel cellsJournal of Power Sources, 131
S. Beale, Y. Lin, S. Zhubrin, W. Dong (2003)
Computer methods for performance prediction in fuel cellsJournal of Power Sources, 118
S. Whitaker (1967)
Diffusion and dispersion in porous mediaAiche Journal, 13
F. Standaert, K. Hemmes, N. Woudstra (1996)
Analytical fuel cell modelingJournal of Power Sources, 63
Shixue Liu, W. Kong, Zijing Lin (2009)
Three-dimensional modeling of planar solid oxide fuel cells and the rib design optimizationJournal of Power Sources, 194
F. Arpino, A. Carotenuto, N. Massarotti, P. Nithiarasu (2008)
A robust model and numerical approach for solving solid oxide fuel cell (SOFC) problemsInternational Journal of Numerical Methods for Heat & Fluid Flow, 18
Lin Ma, D. Ingham, M. Pourkashanian, E. Carcadea (2005)
Review of the Computational Fluid Dynamics Modeling of Fuel CellsJournal of Fuel Cell Science and Technology, 2
R. Perry, D. Green, J. Maloney (2007)
Perry's Chemical Engineers' Handbook
N. Brandon, D. Thompsett (2005)
Fuel cells compendium
P. Aguiar, C. Adjiman, N. Brandon (2005)
Anode-supported intermediate-temperature direct internal reforming solid oxide fuel cell. II. Model-based dynamic performance and controlJournal of Power Sources, 147
M. Lockett, M. Simmons, K. Kendall (2004)
CFD to predict temperature profile for scale up of micro-tubular SOFC stacksJournal of Power Sources, 131
P. Debenedetti, C. Vayenas (1983)
Steady-state analysis of high temperature fuel cellsChemical Engineering Science, 38
F. Arpino, N. Massarotti, A. Mauro (2010)
A stable explicit fractional step procedure for the solution of heat and fluid flow through interfaces between saturated porous media and free fluids in presence of high source termsInternational Journal for Numerical Methods in Engineering, 83
T. Ho, P. Kosinski, A. Hoffmann, A. Vik (2009)
Modeling of transport, chemical and electrochemical phenomena in a cathode-supported SOFCChemical Engineering Science, 64
S. Chan, Z. Xia (2002)
Polarization effects in electrolyte/electrode-supported solid oxide fuel cellsJournal of Applied Electrochemistry, 32
J. Pålsson, A. Selimovic, L. Sjunnesson (2000)
Combined solid oxide fuel cell and gas turbine systems for efficient power and heat generationJournal of Power Sources, 86
N. Massarotti, P. Nithiarasu, O. Zienkiewicz (2001)
Natural convection in porous medium‐fluid interface problems ‐ A finite element analysis by using the CBS procedureInternational Journal of Numerical Methods for Heat & Fluid Flow, 11
S. Singhal (2000)
Advances in solid oxide fuel cell technologySolid State Ionics, 135
Peiwen Li, M. Chyu (2005)
Electrochemical and Transport Phenomena in Solid Oxide Fuel CellsJournal of Heat Transfer-transactions of The Asme, 127
Y. Lin, S. Beale (2006)
Performance predictions in solid oxide fuel cellsApplied Mathematical Modelling, 30
M. Khaleel, Zijing Lin, Prabhakar Singh, W. Surdoval, D. Collin (2004)
A finite element analysis modeling tool for solid oxide fuel cell development: coupled electrochemistry, thermal and flow analysis in MARC®Journal of Power Sources, 130
J. Bae, Sungkwang Lim, H. Jee, J. Kim, Y. Yoo, Taehee Lee (2007)
Small stack performance of intermediate temperature-operating solid oxide fuel cells using stainless steel interconnects and anode-supported single cellJournal of Power Sources, 172
A. Hirano, M. Suzuki, M. Ippommatsu (1992)
Evaluation of a New Solid Oxide Fuel Cell System by Non‐isothermal ModelingJournal of The Electrochemical Society, 139
S. Campanari, P. Iora (2004)
Definition and sensitivity analysis of a finite volume SOFC model for a tubular cell geometryJournal of Power Sources, 132
S. Kapadia, W. Anderson (2009)
Sensitivity analysis for solid oxide fuel cells using a three-dimensional numerical modelJournal of Power Sources, 189
C. Vayenas, P. Debenedetti, I. Yentekakis, L. Hegedus (1985)
Cross-flow, solid-state electrochemical reactors: a steady state analysisIndustrial & Engineering Chemistry Fundamentals, 24
A. Appleby, F. Foulkes (1989)
Fuel Cell Handbook
K. Morgan, N. Weatherill, O. Hassan, P. Brookes, R. Said, J. Jones (1999)
A PARALLEL FRAMEWORK FOR MULTIDISCIPLINARY AEROSPACE ENGINEERING SIMULATIONS USING UNSTRUCTURED MESHESInternational Journal for Numerical Methods in Fluids, 31
J. Ferguson, J. Fiard, R. Herbin (1996)
Three-dimensional numerical simulation for various geometries of solid oxide fuel cellsJournal of Power Sources, 58
Huayang Zhu, R. Kee (2003)
A general mathematical model for analyzing the performance of fuel-cell membrane-electrode assembliesJournal of Power Sources, 117
M. Bistolfi, A. Malandrino, N. Mancini (1996)
The use of different modelling approaches and tools to support research activities: An industrial exampleComputers & Chemical Engineering, 20
N. Sammes (2006)
Fuel cell technology : reaching towards commercialization
I. Celik, S. Pakalapati, Maria Salazar-Villalpando (2005)
Theoretical Calculation of the Electrical Potential at the Electrode/Electrolyte Interfaces of Solid Oxide Fuel CellsJournal of Fuel Cell Science and Technology, 2
C. Stiller, B. Thorud, Steinar Seljebø, Ø. Mathisen, H. Karoliussen, O. Bolland (2005)
Finite-volume modeling and hybrid-cycle performance of planar and tubular solid oxide fuel cellsJournal of Power Sources, 141
M. Hussain, Xianguo Li, I. Dincer (2007)
Mathematical modeling of transport phenomena in porous SOFC anodesInternational Journal of Thermal Sciences, 46
N. Akhtar, S. Decent, D. Loghin, K. Kendall (2009)
A three-dimensional numerical model of a single-chamber solid oxide fuel cellInternational Journal of Hydrogen Energy, 34
V. Danilov, M. Tadé (2009)
A CFD-based model of a planar SOFC for anode flow field designInternational Journal of Hydrogen Energy, 34
P. Nithiarasu (2003)
An efficient artificial compressibility (AC) scheme based on the characteristic based split (CBS) method for incompressible flowsInternational Journal for Numerical Methods in Engineering, 56
E. Greene, W. Chiu, M. Medeiros (2006)
Mass transfer in graded microstructure solid oxide fuel cell electrodesJournal of Power Sources, 161
F. Zhao, A. Virkar (2005)
Dependence of polarization in anode-supported solid oxide fuel cells on various cell parametersJournal of Power Sources, 141
H. Yakabe, M. Hishinuma, Miyuki Uratani, Y. Matsuzaki, I. Yasuda (2000)
Evaluation and modeling of performance of anode-supported solid oxide fuel cellJournal of Power Sources, 86
A. Kirubakaran, Shailendra Jain, R. Nema (2009)
A review on fuel cell technologies and power electronic interfaceRenewable & Sustainable Energy Reviews, 13
Marco Cannarozzo, Simone Grosso, G. Agnew, A. Borghi, P. Costamagna (2007)
Effects of Mass Transport on the Performance of Solid Oxide Fuel Cells Composite ElectrodesJournal of Fuel Cell Science and Technology, 4
Purpose – The purpose of this paper is to describe two‐ and three‐dimensional numerical modelling of solid oxide fuel cells (SOFCs) by employing an accurate and stable fully matrix inversion free finite element algorithm. Design/methodology/approach – A general and detailed mathematical model has been developed for the description of the coupled complex phenomena occurring in fuel cells. A fully matrix inversion free algorithm, based on the artificial compressibility (AC) version of the characteristic‐based split (CBS) scheme and single domain approach have been successfully employed for the accurate and efficient simulation of high temperature SOFCs. Findings – For the first time, a stable fully explicit algorithm has been applied to detailed multi‐dimensional simulation transport phenomena, coupled to chemical and electrochemical reactions, in fluid, porous and solid parts of a SOFC. The accuracy of the present results has been verified via comparison with experimental and numerical data available in the literature. Originality/value – For the first time, thanks to a stabilization analysis conducted, the AC‐CBS algorithm has been successfully used to numerically solve the generalized model, applied in this paper to describe transport phenomena through free fluid channels and porous electrodes of SOFCs, without the need of further conditions at the fluid‐electrode interface.
International Journal of Numerical Methods for Heat and Fluid Flow – Emerald Publishing
Published: Jun 15, 2010
Keywords: Numerical analysis; Modelling; Flow; Porosity; Energy supply systems
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