293
Fuel Production by Supercritical Water
164. de Vlieger, D., Chakinala, A., Lefferts, L., Kersten, S., Seshan, K., and Brilman, D.,
“Hydrogen from ethylene glycol by supercritical water reforming using noble and base
metal catalysts,” Applied Catalysis B: Environmental, 111–112, 536–544 (2012).
165. Yamaguchi, A., Hiyoshi, N., Sato, O., Bando, K., Osada, M., and Shirai, M., “Hydrogen
production from woody biomass over supported metal catalysts in supercritical water,”
Catalysis Today, 146 (1/2), 192–195 (2009).
166. Byrd, A., Pant, K., and Gupta, R., “Hydrogen production from glycerol by reforming in
supercritical water over Ru/Al 2 O 3 catalyst,” Fuel, 87, 2956–2960 (2008).
167. Penninger, J.M.L., Maassa, G.J.J., and Rep, M., “Compressed hydrogen rich fuel gas
(CHFG) from wet biomass by reforming in supercritical water,” International Journal
of Hydrogen Energy, 32 (10/11), 1472–1476 (2007).
168. Penninger, J. and Rep., M., “Reforming of aqueous wood pyrolysis condensate in supercritical water,” International Journal of Hydrogen Energy, 31 (11), 1597–1606 (2006).
169. Therdthianwong, S., Srisinwat, N., Therdthianwong, A., and Croiset, E., “Reforming of
bioethanol over Ni/Al 2 O 3 and Ni/CeZrO catalysts in supercritical water for hydrogen
production,” International Journal of Hydrogen Energy, 36 (4), 2877–2886 (2011).
170. Rozovskii, A.Ya. and Lin, G.I., Theoretical Basis of Methanol Synthesis, Khimiya,
Moscow, 1990.
171. Shekhawat, D., Berry, D., Gardner, T., and Spivey, J., “Catalytic reforming of liquid
hydrocarbon fuels for fuel cell applications,” Catalysis, 19, 184 (2006).
172. Puolakka, K.J., Juutilainen, S., and Krause, A.O.I., “Combined CO 2 reforming and
partial oxidation of n-heptane on noble metal zirconia catalysts,” Catalysis Today, 115
(1–4), 217–221 (2006).
173. Puolakka, J., “CO 2 reforming,” Thesis for the Degree of Licentiate of Science and
Technology, University of Technology, Helsinki, Finland (2007).
174. Kang, J.S., Kim, D.H., Lee, S.D., Hong, S.I., and Moon, D.J., “Nickel-based trireforming catalyst for the production of synthesis gas,” Applied Catalysis A, 332 (1),
153–158 (2007).
175. Antal, M.J., Jr., Manarungson, S., and Mok, W.S.-L., “Hydrogen production by steam
reforming glucose in supercritical water,” in Bridyewater, A.V. (ed.), Advances in
Thermochemical Biomass Conversion. Blackie Academic & Professional, London,
1367–1377 (1994).
176. Shah, Y. and Gardner, T., “Dry reforming of hydrocarbon feedstocks,” Catalysis
Review – Science and Engineering (in press).
177. Byrd, A., Pant, K., and Gupta, R., “Hydrogen production from ethanol by reforming
in supercritical water using Ru/Al 2 O 3 catalyst,” Energy & Fuels, 21 (6), 3541–3547
(2007).
Fuel Production by Supercritical Water
164. de Vlieger, D., Chakinala, A., Lefferts, L., Kersten, S., Seshan, K., and Brilman, D.,
“Hydrogen from ethylene glycol by supercritical water reforming using noble and base
metal catalysts,” Applied Catalysis B: Environmental, 111–112, 536–544 (2012).
165. Yamaguchi, A., Hiyoshi, N., Sato, O., Bando, K., Osada, M., and Shirai, M., “Hydrogen
production from woody biomass over supported metal catalysts in supercritical water,”
Catalysis Today, 146 (1/2), 192–195 (2009).
166. Byrd, A., Pant, K., and Gupta, R., “Hydrogen production from glycerol by reforming in
supercritical water over Ru/Al 2 O 3 catalyst,” Fuel, 87, 2956–2960 (2008).
167. Penninger, J.M.L., Maassa, G.J.J., and Rep, M., “Compressed hydrogen rich fuel gas
(CHFG) from wet biomass by reforming in supercritical water,” International Journal
of Hydrogen Energy, 32 (10/11), 1472–1476 (2007).
168. Penninger, J. and Rep., M., “Reforming of aqueous wood pyrolysis condensate in supercritical water,” International Journal of Hydrogen Energy, 31 (11), 1597–1606 (2006).
169. Therdthianwong, S., Srisinwat, N., Therdthianwong, A., and Croiset, E., “Reforming of
bioethanol over Ni/Al 2 O 3 and Ni/CeZrO catalysts in supercritical water for hydrogen
production,” International Journal of Hydrogen Energy, 36 (4), 2877–2886 (2011).
170. Rozovskii, A.Ya. and Lin, G.I., Theoretical Basis of Methanol Synthesis, Khimiya,
Moscow, 1990.
171. Shekhawat, D., Berry, D., Gardner, T., and Spivey, J., “Catalytic reforming of liquid
hydrocarbon fuels for fuel cell applications,” Catalysis, 19, 184 (2006).
172. Puolakka, K.J., Juutilainen, S., and Krause, A.O.I., “Combined CO 2 reforming and
partial oxidation of n-heptane on noble metal zirconia catalysts,” Catalysis Today, 115
(1–4), 217–221 (2006).
173. Puolakka, J., “CO 2 reforming,” Thesis for the Degree of Licentiate of Science and
Technology, University of Technology, Helsinki, Finland (2007).
174. Kang, J.S., Kim, D.H., Lee, S.D., Hong, S.I., and Moon, D.J., “Nickel-based trireforming catalyst for the production of synthesis gas,” Applied Catalysis A, 332 (1),
153–158 (2007).
175. Antal, M.J., Jr., Manarungson, S., and Mok, W.S.-L., “Hydrogen production by steam
reforming glucose in supercritical water,” in Bridyewater, A.V. (ed.), Advances in
Thermochemical Biomass Conversion. Blackie Academic & Professional, London,
1367–1377 (1994).
176. Shah, Y. and Gardner, T., “Dry reforming of hydrocarbon feedstocks,” Catalysis
Review – Science and Engineering (in press).
177. Byrd, A., Pant, K., and Gupta, R., “Hydrogen production from ethanol by reforming
in supercritical water using Ru/Al 2 O 3 catalyst,” Energy & Fuels, 21 (6), 3541–3547
(2007).