DOI: https://doi.org/10.14710/ijred.7.3.263-267

Comparison between conventional design and cathode gas recirculation design of a direct-syngas solid oxide fuel cell–gas turbine hybrid systems part II: Effect of temperature difference at the fuel cell stack

1Department of Mechanical Engineering, University of Mohaghegh Ardabili, Ardabil, Iran, Islamic Republic of

2Department of Mechanical Engineering, University of Tabriz, Tabriz, Iran, Islamic Republic of

Published: 15 Dec 2018.
Editor(s): H Hadiyanto

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Abstract

This study focuses on the effect of the temperature difference at the fuel cell stack (ΔTcell) on the performances of the two types of SOFC–GT hybrid system configurations, with and without cathode gas recirculation system. In order to investigation the effect of matching between the SOFC temperature (TSOFC) and the turbine inlet temperature (TIT) on the hybrid system performance, we considered additional fuel supply to the combustor as well as cathode gas recirculation system after the air preheater. Simulation results show that the system with cathode gas recirculation gives better efficiency and power capacity for all design conditions than the system without cathode gas recirculation under the same constraints. As the temperature difference at the cell becomes smaller, the both systems performance generally degrade. However the system with cathode gas recirculation is less influenced by the constraint of the cell temperature difference. The model and simulation of the proposed SOFC–GT hybrid systems have been performed with Cycle-Tempo software.

Article History: Received January 16th 2018; Received in revised form July 4th 2018; Accepted October 5th 2018; Available online

How to Cite This Article: Azami, V and Yari, M. (2018) Comparison Between Conventional Design and Cathode Gas Recirculation Design of a Direct-Syngas Solid Oxide Fuel Cell–Gas Turbine Hybrid Systems Part II: Effect of Temperature Difference at The Fuel Cell Stack. International Journal of Renewable Energy Development, 7(3), 263-267.

http://dx.doi.org/10.14710/ijred.7.3.263-267

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Keywords: Solid oxide fuel cell; Gas turbine; Cathode gas recirculation; Exergy

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Article Info
Section: Original Research Article
Language : EN
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  1. Aravind, P.V., Woudstra, T., Woudstra, N. & Spliethoff, H. (2009) Thermodynamic evaluation of small scale systems with biomass gasifiers, solid oxide fuel cells with Ni/GDC anodes and gas turbines. J Power Sources, 190(2), 461–75
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  3. Delft University of Technology. (2017) Cycle-tempo software (Release 5.0), http://www.asimptote.nl/software/cycle-tempo
  4. Delft University of Technology. (2017) Cycle-tempo manuals http://www.asimptote.nl/assets/media/7d155f62-ffe2-4a9e-9f33-bb003c80bd2b.pdf
  5. Fernandes, A., Woudstra, T. & Aravind P. V. (2015) System simulation and exergy analysis on the use of biomass-derived liquid-hydrogen for SOFC/GT powered aircraft. International Journal of Hydrogen Energy, 40: 4683-4697
  6. Ming, L., Aravind, P.V., Woudstra, T., Cobas, V.R.M. & Verkooijena, A.H.M. (2011) Development of an integrated gasifier–solid oxide fuel cell test system: A detailed system study. J Power Sources, 196, 7277–89
  7. Saebea, D., Patcharavochot, Y. & Arpornwichanop, A. (2012) Analysis of an ethanolfuelled solid oxide fuel cell system using partial anode exhaust gas recirculation. J Power Sources, 208, 120–30
  8. Saebea, D., Patcharavochot, Y. Assabumrungrat, S. & Arpornwichanop, A. (2013) Analysis of a pressurized solid oxide fuel cellegas turbine hybrid power system with cathode gas recirculation. Int J Hydrogen Energy, 38, 4748–59
  9. Santhanam, S., Schilt, C., Turker, B., Woudstra, T., & Aravind P. V. (2016) Thermodynamic modeling and evaluation of high efficiency heat pipe integrated biomass Gasifier–Solid Oxide Fuel Cells–Gas Turbine systems. Energy, 109, 751-764
  10. Thallam Thattai, A., Oldenbroek, V., Schoenmakers, L., Woudstra, T. & Aravind P. V., (2017) Towards retrofitting integrated gasification combined cycle (IGCC) power plants with solid oxide fuel cells (SOFC) and CO2 capture – A thermodynamic case study. Applied Thermal Engineering, 114, 170-185
  11. Toonssen, R., Aravind, P.V., Smit, G., Woudstra, N. & Verkooijen, A.H.M. (2010) System study on hydrothermal gasification combined with a hybrid solid oxide fuel cell gas turbine. Fuel Cells, doi: 10.1002/fuce.2009001

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