110
Water for Energy and Fuel Production
205. Hathaway, B.J., Davidson, J.H., and Kittelson, D.B., “Solar gasification of biomass:
Kinetics of pyrolysis and steam gasification in molten salt,” Journal of Solar Energy
Engineering, 133 (2), 021011 (2011).
206. Lichty, P., Perkins, C., Woodruff, B., Bingham, C., and Weimer, A., “Rapid high temperature solar thermal biomass gasification in a prototype cavity reactor,” Journal of
Solar Energy Engineering, 132 (1), 011012 (2010).
207. Klein, H.H., Karni, J., and Rubin, R., “Dry methane reforming without a metal catalyst
in a directly irradiated solar particle reactor,” Journal of Solar Energy Engineering,
131 (2), 021001 (2009).
208. Flechsenhar, M. and Sasse, C., “Solar gasification of biomass using oil shale and coal as
candidate materials,” Energy, 20 (8), 803–810 (1995).
209. Weimer, A., Perkins, C., Mejic, D., Lichty, P., and inventors; WO Patent
WO/2008/027,980, as signee. Rapid Solar-Thermal Conversion of Biomass to Syngas.
United States Patent No. WO2008027980 (June 3, 2008).
210. Zedtwitz, P. and Steinfeld, A., “The solar thermal gasification of coal—Energy conversion efficiency and CO 2 mitigation potential,” Energy, 28 (5), 441–456 (2003).
211. Sattler, C. and Raeder, C., “SOLREF—Solar steam reforming of methane rich gas for
synthesis gas production,” Final Activity Report, DLR, Cologne, Germany (2010).
212. Suarez-Gonzalez, M., Blanco-Marigorta, A., and Peria-Quintana, A., “Review on hydrogen production technologies from solar energy,” International Conference on Renewable
Energies and Power Quality, April 13–15, Los Palmas de Gran Canaria, Spain (2011).
213. Ogden, J.M., “Review of small stationary reformers for hydrogen production,” Report
for IEA, Agreement on the production and utilization of hydrogen, Task 16, Hydrogen
from carbon containing materials, IEA/H2/TR-02/002 (2002).
214. Padban, N. and Becher, V., “Clean hydrogen rich synthesis gas,” Literature and state
of art review (Re: Methane Steam Reforming), Report No. CHRISGAS, WP11 D89
(October 2005).
215. Fernández, Y., Arenillas, A., Bermúdez, J., and Menéndez, J., “Comparative study of
conventional and microwave-assisted pyrolysis, steam and dry reforming of glycerol for
syngas production, using a carbonaceous catalyst,” Journal of Analytical and Applied
Pyrolysis, 88 (2), 155–159 (2010).
216. Fidalgo, B. and Menéndez, J., “Syngas production by CO 2 reforming of CH 4 under
microwave heating—Challenges and opportunities,” in Indarto, A. and Palgunadi, J.
(eds.), Syngas: Production, Applications and Environmental Impact. Nova Science
Publishers, Inc., Hauppauge, NY, 121–149 (2011).
217. Fidalgo, B., Domínguez, A., Pis, J., and Menéndez, J., “Microwave-assisted dry reforming of methane,” International Journal of Hydrogen Energy, 33 (16), 4337–4344 (2008).
218. Yang, L., Liang, J., and Yu, L., “Clean coal technology—Study on the pilot project
experiment of underground coal gasification,” Energy, 14, 1445–1460 (2003).
219. Sato, S. and White, J.M., “Photocatalytic production of hydrogen from water and Texas
lignite by use of a platinized titania catalyst,” Industrial & Engineering Chemistry
Product Research and Development, 19, 542–544 (1980).
220. Belghit, A. and El Issami, S., “Hydrogen production by steam gasification of coal in
gas–solid moving bed using nuclear heat,” Energy Conversion and Management, 42 (1),
81 (2001).
221. Cypres, R., “Modern carbochemical processes for hydrogen production from coal,”
International Journal of Hydrogen Energy, 12 (7), 451–460 (1987).
222. Bijetima, R. and Tarman, P.B., “Development states of the steam-iron process for hydrogen production,” Alternative Energy Sources, 2, 3335–3347 (1981).
223. Biollaz, S., Sturzenegger, M., and Stucki, S., “Redox process for the production of clean
hydrogen from biomass,” Progress in Thermochemical Biomass Conversion Abstracts,
September 17–22, Tyrol, Austria (2000).
Water for Energy and Fuel Production
205. Hathaway, B.J., Davidson, J.H., and Kittelson, D.B., “Solar gasification of biomass:
Kinetics of pyrolysis and steam gasification in molten salt,” Journal of Solar Energy
Engineering, 133 (2), 021011 (2011).
206. Lichty, P., Perkins, C., Woodruff, B., Bingham, C., and Weimer, A., “Rapid high temperature solar thermal biomass gasification in a prototype cavity reactor,” Journal of
Solar Energy Engineering, 132 (1), 011012 (2010).
207. Klein, H.H., Karni, J., and Rubin, R., “Dry methane reforming without a metal catalyst
in a directly irradiated solar particle reactor,” Journal of Solar Energy Engineering,
131 (2), 021001 (2009).
208. Flechsenhar, M. and Sasse, C., “Solar gasification of biomass using oil shale and coal as
candidate materials,” Energy, 20 (8), 803–810 (1995).
209. Weimer, A., Perkins, C., Mejic, D., Lichty, P., and inventors; WO Patent
WO/2008/027,980, as signee. Rapid Solar-Thermal Conversion of Biomass to Syngas.
United States Patent No. WO2008027980 (June 3, 2008).
210. Zedtwitz, P. and Steinfeld, A., “The solar thermal gasification of coal—Energy conversion efficiency and CO 2 mitigation potential,” Energy, 28 (5), 441–456 (2003).
211. Sattler, C. and Raeder, C., “SOLREF—Solar steam reforming of methane rich gas for
synthesis gas production,” Final Activity Report, DLR, Cologne, Germany (2010).
212. Suarez-Gonzalez, M., Blanco-Marigorta, A., and Peria-Quintana, A., “Review on hydrogen production technologies from solar energy,” International Conference on Renewable
Energies and Power Quality, April 13–15, Los Palmas de Gran Canaria, Spain (2011).
213. Ogden, J.M., “Review of small stationary reformers for hydrogen production,” Report
for IEA, Agreement on the production and utilization of hydrogen, Task 16, Hydrogen
from carbon containing materials, IEA/H2/TR-02/002 (2002).
214. Padban, N. and Becher, V., “Clean hydrogen rich synthesis gas,” Literature and state
of art review (Re: Methane Steam Reforming), Report No. CHRISGAS, WP11 D89
(October 2005).
215. Fernández, Y., Arenillas, A., Bermúdez, J., and Menéndez, J., “Comparative study of
conventional and microwave-assisted pyrolysis, steam and dry reforming of glycerol for
syngas production, using a carbonaceous catalyst,” Journal of Analytical and Applied
Pyrolysis, 88 (2), 155–159 (2010).
216. Fidalgo, B. and Menéndez, J., “Syngas production by CO 2 reforming of CH 4 under
microwave heating—Challenges and opportunities,” in Indarto, A. and Palgunadi, J.
(eds.), Syngas: Production, Applications and Environmental Impact. Nova Science
Publishers, Inc., Hauppauge, NY, 121–149 (2011).
217. Fidalgo, B., Domínguez, A., Pis, J., and Menéndez, J., “Microwave-assisted dry reforming of methane,” International Journal of Hydrogen Energy, 33 (16), 4337–4344 (2008).
218. Yang, L., Liang, J., and Yu, L., “Clean coal technology—Study on the pilot project
experiment of underground coal gasification,” Energy, 14, 1445–1460 (2003).
219. Sato, S. and White, J.M., “Photocatalytic production of hydrogen from water and Texas
lignite by use of a platinized titania catalyst,” Industrial & Engineering Chemistry
Product Research and Development, 19, 542–544 (1980).
220. Belghit, A. and El Issami, S., “Hydrogen production by steam gasification of coal in
gas–solid moving bed using nuclear heat,” Energy Conversion and Management, 42 (1),
81 (2001).
221. Cypres, R., “Modern carbochemical processes for hydrogen production from coal,”
International Journal of Hydrogen Energy, 12 (7), 451–460 (1987).
222. Bijetima, R. and Tarman, P.B., “Development states of the steam-iron process for hydrogen production,” Alternative Energy Sources, 2, 3335–3347 (1981).
223. Biollaz, S., Sturzenegger, M., and Stucki, S., “Redox process for the production of clean
hydrogen from biomass,” Progress in Thermochemical Biomass Conversion Abstracts,
September 17–22, Tyrol, Austria (2000).