327
Water Dissociation Technologies for Hydrogen
108. Steinfeld, A. and Palumbo, R., “Solar thermochemical process technology,” Encyclopedia
of Physical Science and Technology, 15 (1), 237–256 (2001).
109. Steinfeld, A. and Meier, A., Solar Fuels and Materials. Elsevier, Amsterdam, the
Netherlands, 623–637 (2004).
110. Steinfeld, A., “Solar hydrogen production via a two-step water-splitting thermochemical
cycle based on Zn/ZnO redox reactions,” International Journal of Hydrogen Energy,
27 (6), 611–619 (2002).
111. Funke, H.H., Diaz, H., Liang, x., Carney, C.S., Weimer, A.W., and Li, P., “Hydrogen
generation by hydrolysis of zinc powder aerosol,” International Journal of Hydrogen
Energy, 33 (4), 1127–1134 (2008).
112. Abanades, S., Charvin, P., Lemont, F., and Flamant, G., “Novel two-step SnO 2 /SnO
water-splitting cycle for solar thermochemical production of hydrogen,” International
Journal of Hydrogen Energy, 33 (21), 6021–6030 (2008).
113. Meier, A. and Steinfeld, A., “Solar thermochemical production of fuels,” Advances in
Science and Technology, 74 (1), 303–312 (2011).
114. Chueh, W.C. and Haile, S.M., “Ceria as a thermochemical reaction medium for
selectively generating syngas or methane from H 2 O and CO 2 ,” ChemSusChem, 2 (8),
735–739 (2009).
115. Kappauf, T. and Fletcher, E.A., “Hydrogen and sulfur from hydrogen sulfide VI. Solar
thermolysis,” Energy, 14 (8), 443–449 (1989).
116. Zaman, J. and Chakma, A., “Production of hydrogen and sulfur from hydrogen sulfide,”
Fuel Processing Technology, 41 (2), 159–198 (1995).
117. Steinfeld, A., “Solar thermochemical production of hydrogen: A review,” Solar Energy,
78 (5), 603–615 (2005).
118. Perret, R., “Solar thermochemical hydrogen production research (STCH), thermochemical cycle selection and investment priority,” Report No. SAND2011-3622, Sandia
National Laboratories, Livermore, CA (2011).
119. Almodaris, M., Khorasani, S., Abraham, J.J., and Ozalp, N. (eds.), “Simulation of
solar thermo-chemical hydrogen production techniques,” ASME/JSME 8th Thermal
Engineering Joint Conference, March 13–17, ASME, Honolulu, HI (2011).
120. Aoki, A., Ohtake, H., Shimizu, T., Kitayama, Y., and Kodama, T., “Reactive metal-oxide
redox system for a two-step thermochemical conversion of coal and water to CO and
H 2 ,” Energy, 25 (3), 201–218 (2000).
121. Osinga, T., Olalde, G., and Steinfeld, A., “Solar carbothermal reduction of ZnO:
Shrinking packed-bed reactor modeling and experimental validation,” Industrial &
Engineering Chemistry Research, 43 (25), 7981–7988 (2004).
122. Osinga, T., Frommherz, U., Steinfeld, A., and Wieckert, C., “Experimental investigation
of the solar carbothermic reduction of ZnO using a two-cavity solar reactor,” Journal of
Solar Energy Engineering, 126 (1), 633–637 (2004).
123. Epstein, M., Olalde, G., Santén, S., Steinfeld, A., and Wieckert, C., “Towards the
industrial solar carbothermal production of zinc,” Journal of Solar Energy Engineering,
130 (1), 014505 (2008).
124. Wieckert, C., Frommherz, U., Kräupl, S., Guillot, E., Olalde, G., Epstein, M., Santen, S.,
Osinga, T., and Steinfeld, A., “A 300 kW solar chemical pilot plant for the carbothermic
production of zinc,” Journal of Solar Energy Engineering, 129 (2), 190–196 (2007).
125. Kromer, M., Roth, K., Takata, R., and Chin, P., “Support for cost analyses on solar-driven
high temperature thermochemical water-splitting cycles,” Report No. DE-DT0000951,
TIAx, LLC2011, Lexington, MA (February 22, 2011).
126. Lede, J., Lapicque, F., and Villermaux, J., International Journal of Hydrogen Energy, 8,
675 (1983).
127. Lapicque, F., Lede, J., Villermaux, J., Caler, B., Baumard, J., Anthony, A., Abdul-Aziz, G.,
Puechbertz, D., and Ledrix, M., Entropie, 19, 42 (1983).