328
Water for Energy and Fuel Production
128. Beghi, G., “A decade of research on thermochemical water hydrogen at the Joint
Research Center, Ispra,” International Journal of Hydrogen Energy, 11 (12), 761–771
(1986).
129. Besenbruch, G., “General atomic sulfur-iodine thermochemical water splitting process,”
American Chemical Society, Division of Petroleum Chemistry, preprint, 271, 48 (1982).
130. Sato, S., Shimizu, S., Nakajima, N., and Ikezoe, Y., “A nickel-iodine-sulfur process for
hydrogen production,” International Journal of Hydrogen Energy, 8 (1), 15–22 (1983).
131. Abanades, S., Charvin, P., Flamant, G., and Neveu, P., “Screening of water-splitting
thermochemical cycles potentially attractive for hydrogen production by concentrated
solar energy,” Energy, 31, 2805–2822 (2006).
132. Marchetti, C., Chemical Economy & Engineering Review, 5, 7 (1973).
133. DeBeni, G. and Marchetti, C., “A chemical process to decompose water using nuclear
heat,” Paper presented at the 163rd National Meeting of the American Chemical Society,
April 9, Boston, MA (1972).
134. Appleby, A. and Bockris, J., International Journal of Hydrogen Energy, 6, 1 (1981).
135. Pyle, W., Hayes, M., and Spivak, A., “Direct solar-thermal hydrogen production from
water using nozzle/skimmer and glow discharge,” IECEC96535, Report from H-ION
Solar Inc., Richmond, CA (2010).
136. Baykara, S., “Experimental solar water thermolysis,” International Journal of Hydrogen
Energy, 29 (14), 1459–1469 (2004).
137. Harvey, W.S., Davidson, J.H., and Fletcher, E.A., “Thermolysis of hydrogen sulfide in
the temperature range 1350–1600 K,” Industrial & Engineering Chemistry Research, 37 (6),
2323–2332 (1998).
138. Perkins, C. and Weimer, A.W., “Solar-thermal production of renewable hydrogen,”
AIChE Journal, 55 (2), 286–293 (2009).
139. Venugopalan, M. and Jones, R., Chemistry of Dissociated Water Vapor and Related
Systems. Wiley, New York (1968).
140. Schultz, K., “Thermochemical production of hydrogen from solar and nuclear energy,”
Presentation to the Stanford Global Climate and Energy Project, April 14, General
Atomics, San Diego, CA (2003).
141. Kerr, W. and Majumdar, D., “Aqueous homogeneous reactor for hydrogen production,”
in Veziroglu, T. (ed.), Hydrogen Energy, Part A. Plenum Press, New York, 167 (1975).
142. Gomberg, H. and Gordus, A., Journal of Fusion Energy, 2, 319 (1982).
143. Northrup, C., Jr., Gerlach, T., Modreski, P., and Galt, J., International Journal of
Hydrogen Energy, 3 (1) (1978).
144. Fudali, R., Geochimica et Cosmochimica Acta, 29, 529 (1948).
145. Kennedy, G., American Journal of Science, 246, 529 (1948).
146. Bockris, J. and Gutmann, F., Applied Physics Communications, 1, 121 (1981–1982).
147. Farady, M., Diary. Bell, London, Vol. 1, 381 (1932).
148. Appleton, A., “Super conducting DC machines,” in Fouer, S. and Scwartz, B. (eds.),
Superconducting Machines and Devices. Plenum Press, New York, 219 (1973).
149. Boyd, R. and Burns, G., in Lifshitz, A. (ed.), Shock Waves in Chemistry. Marcel Dekker,
New York, 131 (1981).
150. Kasal, P. and Bishop, R., Jr., US Patent No. 3963830 (1976).
151. Kasal, P. and Bishop, R., Jr., The Journal of Physical Chemistry, 81, 1527 (1977).
152. England, C., in Veziroglu, T., Van Vorst, W., and Kelley, H. (eds.), Hydrogen Energy
Progress IV, Proceedings of the World Hydrogen Energy Conference IV, June 13–17,
Pasadena, CA, Vol. 2, p. 462, Pergamon Press, Oxford (1982).
153. Fletcher, E.A. and Moen, R.L., “Hydrogen and oxygen from water,” Science, 197,
1050–1056 (1977).
Précédent

- 366/440

Suivant