Solid oxide fuel cells (SOFCs) can play an indispensable role in the futurist’s hydrogen economy. SOFC operating at 800–1,000°C is a very efficient power source because the heat generated from SOFCs can be used for co-generation of power with a turbine and the rejected heat can still be used for heating. Thus, it is envisioned that large-scale stationary SOFC systems can achieve a high energy efficiency (>60%) and high fuel efficiency (>80%). Due to their high operating temperatures, SOFCs can directly utilize biofuels, natural gas, syngas (H2 + CO), and hydrogen for power generation or operate on reformate from a relatively simple fuel processor. Thus, deployment of SOFC technology does not depend on availability of hydrogen transport and storage technologies. The major obstacles for deployment of SOFCs are the high manufacture costs, voluminous structure, and limited reliability and durability. Should these obstacles be removed, SOFCs can be universal power sources for diver-sified and decentralized large-scale energy sources that are available during the transition period to and in the hydrogen economy.
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References
K. Kendall, N.Q. Minh, and S.C. Singhal, in: High-Temperature Solid Oxide Fuel Cells-Fundamentals, Design and Applications, edited by S. Singhal and K. Kendall (Elsevier Science, Oxford, England, 2003), pp. 197-229.
M.A. Khaleel and J.R. Selman, in: High-Temperature Solid Oxide Fuel CellsFundamentals, Design and Applications, edited by S. Singhal and K. Kendall (Elsevier Science, Oxford, England, 2003), pp. 293-332.
C. Song, Fuel processing for low-temperature and high-temperature fuel cells Challenges, and opportunities for sustainable development in the 21st century. Catalysis Today 77, 17-49 (2002).
EG&G Technical Services, Inc., Fuel Cell Handbook, 7th edn US Department of Energy, Office of Fossil Energy, National Energy Technology Laboratory, Morgantown, West Virginia, 2004.
M.C. Williams, J.P. Strakey, and S.C. Singhal, US distributed generation fuel cell program. Journal of Power Sources 131, 79-85 (2004).
J. Zizelman, J. Botti, J. Tachtler, and W. Strobl, Automotive Engineering International 14, September, 2000.
M.C. Williams, J.P. Strakey, and W.A. Surdoval. The US Department of Energy, Office of Fossil Energy Stationary Fuel Cell Program. Journal of Power Sources 143, 191-196 (2005).
Paolo Agnolucci and William McDowall, Technological change in niches: auxiliary power units and the hydrogen economy. Technological Forecasting & Social Change 74, 1394-1410 (2007).
Gregorio Marbán and Teresa Valdés-Solís, Towards the hydrogen economy? International Journal of Hydrogen Energy 32, 1625-1637 (2007).
Seth Dunn, Hydrogen futures: toward a sustainable energy system. International Journal of Hydrogen Energy 27, 235-264 ((2002).
Carl-Jochen Winter, Electricity, hydrogen—competitors, partners? International Journal of Hydrogen Energy 30, 1371-1374 (2005).
P. Kruger, Electric power requirements in the United States for large-scale production of hydrogen fuel. International Journal of Hydrogen Energy 25, 1023-33 (2000).
William McDowalla and Malcolm Eamesb, Towards a sustainable hydrogen economy: a multi-criteria sustainability appraisal of competing hydrogen futures. International Journal of Hydrogen Energy, proof for publication, 2007.
S. Flipsen, Power sources compared: the ultimate truth? Journal of Power Sources 162, 927-934 (2006).
R.K. Dixon, The US Hydrogen program; Department of Energy., http://www.hydrogen.energy.gov/
de la Casa-Lillo MA, Lamari-Darkrim F, Cazorla-Amorós D, and Linares-Solano A. Hydrogen storage in activated carbons and activated carbon fibers. Journal of Physical Chemistry B, 106, 10930-10934 (2002).
C.-J. Brodrick, T.E. Lipman, M. Farshchi, N.P. Lutsey, H.A. Dwyer, D. Sperling, I. Gouse, S. William, D.B. Harris, and F.G. King, Evaluation of fuel cell auxiliary power units for heavy-duty diesel trucks. Transportation Research, Part D: Transport and Environment 7 (4), 303-316 (2002).
S.F.J. Flipsen, Power sources compared: the ultimate truth?, Journal of Power Sources 162, 927-934 (2006).
Breakthrough Fuel Cell on a Chip™ Technology Recognized as “Life-Changing Innovation”, www.fuelcellworks.com, Dec. 2006.
Arthur D. Little, Conceptual design of POX SOFC 5 kw net system final report to the department of energy national energy technology laboratory January 8, 2001 (2001).
F. Baratto, U.M. Diwekar, and D. Manca, Impacts assessment and trade-offs of fuel cell-based auxiliary power units Part I system performance and cost modelling, Journal of Power Sources 139, 205-213 (2005).
P. Lamp, J. Tachtler, O. Finkenwirth, S. Mukerjee, and S. Shaffer, Development of an auxiliary power unit with solid oxide fuel cells for automotive applications, Fuel Cells 3 (3), 146-152 (2003).
J. Zizelman, S. Shaffer, and S. Mukerjee, Solid oxide fuel cell auxiliary power unit: a development update, Fuel Cell Power for Transportation 2002, Detroit, MI, Society for Automotive Engineers Technical Paper Series, 2002.
P.F. van den Oosterkamp, Critical issues in heat transfer for fuel cell systems, Energy Conversion and Management 47 (20), 3552-3561 (2006).
Tomazˇ Katrasˇnik, Hybridization of powertrain and downsizing of IC engine - A way to reduce fuel consumption and pollutant emissions - Part 1, Energy Conversion and Management 48, 1411-1423 (2007).
Stephanie L. Hamilton, Project Title: Micro Turbine Generator Program, Southern California Edison, Proceedings of the 33rd Hawaii International Conference on System Sciences, 2000.
Well-to-Wheel Energy Use and Greenhouse Gas Emissions of Advanced Fuel/Vehicle Systems, General Motor, Argonne National Laboratory, Exxon, Shell, 2001.
T. Aicher, B. Lenz, F. Gschnell, U. Groos, F. Federici, and L. Caprile, Fuel processors for fuel cell APU applications. Journal of Power Sources 154, 503-508 (2006).
E. Varkarakia, N. Lymberopoulosa, E. Zouliasa, D. Guichardotb, and G. Polic, Hydrogen-based uninterruptible power supply. International Journal of Hydrogen Energy 32, 1589-1596 (2007).
A.D. Hawkes and P. Aguiar, B. Croxford, M.A. Leach, C.S. Adjiman, N.P. Brandon, Solid oxide fuel cell micro combined heat and power system operating strategy: options for provision of residential space and water heating. Journal of Power Sources 164, 260-271 (2007).
N.M. Sammes and R. Boersma, Small-scale fuel cells for residential applications. Journal of Power Sources 86, 98-110 (2000).
http://www.homegeneratorsystems.com/products/intelligen/15kw/index.cfm#feets.
T. Susai, A. Kawakami, A. Hamada, Y. Miyake, and Y. Azegami, Development of a 1 kW polymer electrolyte fuel cell power source. Journal of Power Sources 92, 131-138 (2002).
http://www.fuelcellmarkets.com/european_fuel_Cell/1,1,2994.html
Chenggang Xie, Joseph Bostaph, and Jeanne Pavio, Development of a 2 W direct methanol fuel cell power source. Journal of Power Sources 136, 55-65 (2004).
T. Sack and T. Matty, Li-ion battery technology for compact high power sources 96, 47-51 (2001).
S. Veyo, Westinghouse SOFC Field Unit Status, Westinghouse Science & Technology Center, 2004.
Y. Yoshida, N. Hisatome, and K. Takanobu, Development of SOFC for Products, Mitsubishi Heavy Industries, Ltd., Technical Review Vol. 40 No. 4 (Aug. 2003).
ACUMENTRICS 5000 POWER SYSTEM http://www.fuelcellmarkets.com/ article_ default_view.fcm?articleid=7195&subsite=425.
Julian Dinsdale, Karl Föger, Raj Ratnaraj, Jonathan Love, and Alison Washusen Ceramic Fuel Cells Limited (CFCL), COMMERCIALISATION OF CFCL’S ALLCERAMIC STACK TECHNOLOGY Paper presented at the Fuel Cell Seminar, Miami, November 2003.
Cummins Power Generation 10kWe SOFC Power System Commercialization Program March 22, 2002.
Markus Jenne, Demonstration Project-Sulzer Hexis SOFC System for Biogas (Fermentation Gas) Operation, ESF Workshop January 29-30th, 2003.
Steven Shaffer, Update on Delphi’s Development of a Solid Oxide Fuel Cell Power System, Honolulu, Hawaii, 2006 Fuel Cell Seminar, 2006.
Mesoscopic Devices, MesoGen™ 250 W military SOFC battery charger, 2005.
Aaron Crumm, Portable Fuel Cell Systems-Solid Oxide Fuel Cells, Adaptive Materials, Inc., 2005.
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Zhou, X.Y., Pramuanjaroenkij, A., Kakaç, S. (2008). A Review on Miniaturization of Solid Oxide Fuel Cell Power Sources-I: State-of-The-Art Systems. In: Kakaç, S., Pramuanjaroenkij, A., Vasiliev, L. (eds) Mini-Micro Fuel Cells. NATO Science for Peace and Security Series C: Environmental Security. Springer, Dordrecht. https://doi.org/10.1007/978-1-4020-8295-5_21
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