Radiation Heat Transfer Effect in Solid Oxide Fuel Cell: Application of the Lattice Boltzmann Method
The radiation effect within the solid anode, electrolyte, and cathode SOFC layers problem has been investigated in this paper. Energy equation is solved by the Lattice Boltzmann method (LBM). The Rosseland method is used to model the radiative transfer in the electrodes. The Schuster-Schwarzschild method is used to model the radiative transfer in the electrolyte. Without radiative effect, the found results are in good agreement with those published. The obtained results show that the radiative effect can be neglected.
Digital Object Identifier (DOI): doi.org/10.5281/zenodo.1092034Procedia APA BibTeX Chicago EndNote Harvard JSON MLA RIS XML ISO 690 PDF Downloads 2058
 H. Karoliussen, K. Nisancioglu and A. Solheim, "Use of effective conductivities and unit cell-based supraelements in the numerical simulation of solid oxide fuel cell stacks” J. Appl. Electrochem, vol.28, pp.283–288, 1998.
 S. Murthy and A.G. Fedorov, "Radiation heat transfer analysis of the monolith type solid oxide fuel cell”, J. Power Sources, vol.124, pp.453–458, 2003.
 G. Brus and J.S. Szmyd, "Numerical modelling of radiative heat transfer in an internal indirect reforming-type SOFC”, J. Power Sources, vol.181, pp.8–16, 2008.
 D.L. Damm and A.G. Fedorov, "Spectral radiative heat transfer analysis of the planar SOFC” J. Fuel Cell Sci. Technol, vol.2, no.4, pp.258–262, 2005.
 D.L. Damm and A.G. Fedorov, "Radiation heat transfer in SOFC materials and components” J. Power Sources, vol.143, no.1, pp.158–165, 2005.
 K.J. Daun, S.B. Beale and F. Liu, "Radiation heat transfer in planar SOFC electrolytes” J. Power Sources, vol.157, pp.302–310, 2006.
 J.D.J. VanderSteen and J.G. Pharoah "Modeling radiation heat transfer with participating media in solid oxide fuel cells” J. Fuel Cell Sci. Technol, vol.3, pp.62–67. 2006.
 D. Sanchez, R.Chacartegui and A. Munoz "Thermal and electrochemical model of internal reforming solid oxide fuel cells with tubular geometry” J. Power Sources, vol.160, pp.1074–1087, 2006.
 H. Yakabe, T. Ogiwara, M. Hishinuma and I.Yasuda "3-D model calculation for planar SOFC” J. Power Sources, vol.102, pp.144–154. 2001.
 B. Rousseau, H. Gomart, D.S.M. Domingos, E. Patrick, R. Mathilde, D. Romain and L. Pascal "Modelling of the radiative properties of an opaque porous ceramic layer”, J. Electroceram, vol.27, pp.89–92, 2011.
 R.J. Kee, B.L. Kee and J.L. Martin "Radiative and convective heat transport within tubular solid-oxide fuel-cell stacks” J. Power Sources, vol.195, pp.6688–6698, 2010.
 M. García-Camprubí, H. Jasak and N. Fueyo, "CFD analysis of cooling effects in H2-fed solid oxide fuel cells” J. Power Sources, vol.196, pp.7290–7301. 2011.
 C. Bao, N. Cai and E.Croiset, "An analytical model of view factors for radiation heat transfer in planar and tubular solid oxide fuel cells” J. Power Sources, vol.196, pp.3223–3232, 2011.
 T.X. Ho, P. Kosinski and A.C. Hoffmann, "Effects of heat sources on the performance of a planar solid oxide fuel cell” Int. J. Hydrogen Energy, vol.35, pp.4276–4284, 2010.
 Z. Bariza, M.B. Hocine, O. Kafia, S. Slimane, C. Khaled, "Temperature field, H2 and H2O mass transfer in SOFC single: Electrode and electrolyte thickness effects” international journal of hydrogen energy,vol.34, pp. 5032–5039
 D.L. Damm and A.G. Fedorov, Proc. ASME Int. Mech. Eng. Congress Expo. Anaheim, CA. 2004.
 S. Succi, "The Lattice Boltzmann Equation for Fluid Dynamics and Beyond”, Oxford University Press, New York. 2001.