Comprehensive numerical modeling and analysis of a cell-based indirect internal reforming tubular SOFC

A comprehensive numerical model of an indirect internal reforming tubular Solid Oxide Fuel Cell (IIR-T-SOFC) has been developed. Two-dimensional axisymmetry of the velocity, temperature, and mass transfer fields was assumed in the model, but accommodating the peripheral nonuniformity of electric pot...

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Հիմնական հեղինակներ: Nishino, T, Iwai, H, Suzuki, K
Ձևաչափ: Journal article
Լեզու:English
Հրապարակվել է: 2006
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author Nishino, T
Iwai, H
Suzuki, K
author_facet Nishino, T
Iwai, H
Suzuki, K
author_sort Nishino, T
collection OXFORD
description A comprehensive numerical model of an indirect internal reforming tubular Solid Oxide Fuel Cell (IIR-T-SOFC) has been developed. Two-dimensional axisymmetry of the velocity, temperature, and mass transfer fields was assumed in the model, but accommodating the peripheral nonuniformity of electric potential and electric current fields in the tubular cell for the case with internal reforming and electrochemical reactions. By using the developed model, it was examined how the thermal field and power generation characteristics of the cell are affected by gas inlet conditions and filling pattern of the reforming catalyst inside the fuel feed tube. In particular, optimization of the catalyst distribution pattern was demonstrated to be effective in the reduction of the maximum temperature and temperature gradient, in the mitigation of the possible appearance of a hot spot and therefore in making the life of a fuel cell longer with little loss of the power generation performance of the cell. Copyright © 2006 by ASME.
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spelling oxford-uuid:80ce40b5-e8d6-4fd5-a417-ddf090d879202022-03-26T21:25:58ZComprehensive numerical modeling and analysis of a cell-based indirect internal reforming tubular SOFCJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:80ce40b5-e8d6-4fd5-a417-ddf090d87920EnglishSymplectic Elements at Oxford2006Nishino, TIwai, HSuzuki, KA comprehensive numerical model of an indirect internal reforming tubular Solid Oxide Fuel Cell (IIR-T-SOFC) has been developed. Two-dimensional axisymmetry of the velocity, temperature, and mass transfer fields was assumed in the model, but accommodating the peripheral nonuniformity of electric potential and electric current fields in the tubular cell for the case with internal reforming and electrochemical reactions. By using the developed model, it was examined how the thermal field and power generation characteristics of the cell are affected by gas inlet conditions and filling pattern of the reforming catalyst inside the fuel feed tube. In particular, optimization of the catalyst distribution pattern was demonstrated to be effective in the reduction of the maximum temperature and temperature gradient, in the mitigation of the possible appearance of a hot spot and therefore in making the life of a fuel cell longer with little loss of the power generation performance of the cell. Copyright © 2006 by ASME.
spellingShingle Nishino, T
Iwai, H
Suzuki, K
Comprehensive numerical modeling and analysis of a cell-based indirect internal reforming tubular SOFC
title Comprehensive numerical modeling and analysis of a cell-based indirect internal reforming tubular SOFC
title_full Comprehensive numerical modeling and analysis of a cell-based indirect internal reforming tubular SOFC
title_fullStr Comprehensive numerical modeling and analysis of a cell-based indirect internal reforming tubular SOFC
title_full_unstemmed Comprehensive numerical modeling and analysis of a cell-based indirect internal reforming tubular SOFC
title_short Comprehensive numerical modeling and analysis of a cell-based indirect internal reforming tubular SOFC
title_sort comprehensive numerical modeling and analysis of a cell based indirect internal reforming tubular sofc
work_keys_str_mv AT nishinot comprehensivenumericalmodelingandanalysisofacellbasedindirectinternalreformingtubularsofc
AT iwaih comprehensivenumericalmodelingandanalysisofacellbasedindirectinternalreformingtubularsofc
AT suzukik comprehensivenumericalmodelingandanalysisofacellbasedindirectinternalreformingtubularsofc