322
Water for Energy and Fuel Production
conceived by Faraday [147]. Bockris and Gutmann [146] suggested that using this
concept electrolysis can be carried out by generating the necessary potential difference by magnetic induction inside the electrolyzer [11,146–148]. Bockris et al. [11]
examined the details of this method.
reFerenCes
1. Meier, A. and Sattler, C., “Solar fuels from concentrated sunlight,” SolarPACES, Solar
Power and Chemical Energy Systems, IEA report (August 2009).
2. Smitkova, M., Janicek, F., and Riccardi, J., “Analysis of the selected processes for
hydrogen production,” WSEAS Transactions on Environment and Development, 11 (4),
1026–1035 (2008).
3. Funk, J.E. and Reinstrom, R.M., “Energy requirements in the production of hydrogen
from water,” Industrial & Engineering Chemistry Process Design and Development,
5 (3), 336–342 (1966).
4. Funk, J.E., “Thermodynamics of multi-step water decomposition processes,”
Proceedings of the Symposium on Non-Fossil Chemical Fuels, ACS 163rd National
Meeting, April, Boston, MA, 79–87 (1972).
5. Abe, I., “Hydrogen productions from water,” Energy Carriers and Conversion Systems,
1, 1–3 (2001).
6. Taylan, O. and Berberoglu, H. “Fuel production using concentrated solar energy,” in
Rugescu, R. (ed.) The Applications of Solar Energy, INTECH, Rijeka, Croatia, 33–67
(2013).
7. Klausner, J., Petrasch, J., Mei, R., Hahn, D., Mehdizadeh, A., and Auyeung, N., “Solar
fuel: Pathway to a sustainable energy future,” Florida Energy Summit, University of
Florida, Gainesville, FL (August 17, 2012).
8. Ris, T. and Hagen, E., “Hydrogen production-gaps and priorities,” IEA Hydrogen
Implementing Agreement (HIA), 1–111 (2005).
9. Suarez, M., Blanco-Marigorta, A., and Peria-Quintana, J., “Review on hydrogen production technologies from solar energy,” International Conference on Renewable Energies
and Power Quality, La Palmas de Gran Canaria, April 13–15, Spain (2011).
10. Nowotny, J., Sorrell, C., Sheppard, L., and Bak, T., “Solar-hydrogen: Environmentally
safe fuel for the future,” International Journal of Hydrogen Energy, 30 (5), 521–544
(2005).
11. Bockris, J., Dandapani, B., Cocke, D., and Ghoroghchian, J., “On the splitting of water,”
International Journal of Hydrogen Energy, 10 (30), 179–201 (1985).
12. Naterer, G.F., “Economics and synergies of electrolytic and thermochemical methods
of environmentally benign hydrogen production,” Proceedings of the World Hydrogen
Energy Conference, May 16–21, Essen, Germany (2010).
13. Laoun, B., “Thermodynamics aspect of high pressure hydrogen production by water
electrolysis,” Revue des Énergies Renouvelables, 10 (3), 435–444 (2007).
14. Funk, J.E., “Thermochemical and electrolytic production of hydrogen,” in Vezeroglu,
T.N. (ed.), Introduction to Hydrogen Energy. International Association for Hydrogen
Energy, Miami, FL, 19–49 (1975).
15. Onda, K., Kyakuno, T., Hattori, K., and Ito, K., “Prediction of production power for high
pressure hydrogen by high pressure water electrolysis,” Journal of Power Sources, 132,
64–70 (2004).
16. “High temperature electrolysis,” Wikipedia, the free encyclopedia, 1–3 (2012).
17. McKellar, M., Harvego, E., and Gandrik, A., “System evaluation and economic analysis
of a HTGR powered high temperature electrolysis production plant,” Proceedings of the
High Temperature Reactor, Paper 093, October 18–20, Prague, Czech Republic (2010).
Water for Energy and Fuel Production
conceived by Faraday [147]. Bockris and Gutmann [146] suggested that using this
concept electrolysis can be carried out by generating the necessary potential difference by magnetic induction inside the electrolyzer [11,146–148]. Bockris et al. [11]
examined the details of this method.
reFerenCes
1. Meier, A. and Sattler, C., “Solar fuels from concentrated sunlight,” SolarPACES, Solar
Power and Chemical Energy Systems, IEA report (August 2009).
2. Smitkova, M., Janicek, F., and Riccardi, J., “Analysis of the selected processes for
hydrogen production,” WSEAS Transactions on Environment and Development, 11 (4),
1026–1035 (2008).
3. Funk, J.E. and Reinstrom, R.M., “Energy requirements in the production of hydrogen
from water,” Industrial & Engineering Chemistry Process Design and Development,
5 (3), 336–342 (1966).
4. Funk, J.E., “Thermodynamics of multi-step water decomposition processes,”
Proceedings of the Symposium on Non-Fossil Chemical Fuels, ACS 163rd National
Meeting, April, Boston, MA, 79–87 (1972).
5. Abe, I., “Hydrogen productions from water,” Energy Carriers and Conversion Systems,
1, 1–3 (2001).
6. Taylan, O. and Berberoglu, H. “Fuel production using concentrated solar energy,” in
Rugescu, R. (ed.) The Applications of Solar Energy, INTECH, Rijeka, Croatia, 33–67
(2013).
7. Klausner, J., Petrasch, J., Mei, R., Hahn, D., Mehdizadeh, A., and Auyeung, N., “Solar
fuel: Pathway to a sustainable energy future,” Florida Energy Summit, University of
Florida, Gainesville, FL (August 17, 2012).
8. Ris, T. and Hagen, E., “Hydrogen production-gaps and priorities,” IEA Hydrogen
Implementing Agreement (HIA), 1–111 (2005).
9. Suarez, M., Blanco-Marigorta, A., and Peria-Quintana, J., “Review on hydrogen production technologies from solar energy,” International Conference on Renewable Energies
and Power Quality, La Palmas de Gran Canaria, April 13–15, Spain (2011).
10. Nowotny, J., Sorrell, C., Sheppard, L., and Bak, T., “Solar-hydrogen: Environmentally
safe fuel for the future,” International Journal of Hydrogen Energy, 30 (5), 521–544
(2005).
11. Bockris, J., Dandapani, B., Cocke, D., and Ghoroghchian, J., “On the splitting of water,”
International Journal of Hydrogen Energy, 10 (30), 179–201 (1985).
12. Naterer, G.F., “Economics and synergies of electrolytic and thermochemical methods
of environmentally benign hydrogen production,” Proceedings of the World Hydrogen
Energy Conference, May 16–21, Essen, Germany (2010).
13. Laoun, B., “Thermodynamics aspect of high pressure hydrogen production by water
electrolysis,” Revue des Énergies Renouvelables, 10 (3), 435–444 (2007).
14. Funk, J.E., “Thermochemical and electrolytic production of hydrogen,” in Vezeroglu,
T.N. (ed.), Introduction to Hydrogen Energy. International Association for Hydrogen
Energy, Miami, FL, 19–49 (1975).
15. Onda, K., Kyakuno, T., Hattori, K., and Ito, K., “Prediction of production power for high
pressure hydrogen by high pressure water electrolysis,” Journal of Power Sources, 132,
64–70 (2004).
16. “High temperature electrolysis,” Wikipedia, the free encyclopedia, 1–3 (2012).
17. McKellar, M., Harvego, E., and Gandrik, A., “System evaluation and economic analysis
of a HTGR powered high temperature electrolysis production plant,” Proceedings of the
High Temperature Reactor, Paper 093, October 18–20, Prague, Czech Republic (2010).