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Also as “Fundamentals of methanol synthesis and decomposition,” Topics in
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62. Gao, J., Hou, Z.Y., Shen, K., Lou, H., Fei, J.H., and Zheng, x.M. “Autothermal reforming and partial oxidation of methane in fluidized reactor over highly dispersed Ni catalyst
prepared from Ni complex,” Chinese Journal of Chemistry, 24 (6), 721–723 (2006).
63. Halmann, M. and Steinfeld, A., “Thermoneutral tri-reforming of flue gases from coal
and gas fired power stations,” Catalysis Today, 115, 170–178 (2006).
64. Kang, J.S., Kim, D., Lee, S., Hong, S., and Moon, D., “Nickel based tri-reforming catalyst for the production of synthesis gas,” Applied Catalysis A: General, 332, 153–158
(2007).
65. Puolakka, J., “CO 2 reforming,” Thesis for the Degree of Licentiate of Science and
Technology, Helsinki University of Technology, Finland (2007).
66. Corella, J., Toledo, J., and Molina, G., “Steam gasification of coal at low-medium
(600-800°C) temperature with simultaneous CO2 capture in fluidized bed at atmospheric pressure: The effect of inorganic species. 1. Literature review and comments,”
Industrial & Engineering Chemistry Research, 45, 6137–6146 (2006).
67. Sharma, D.K., “Enhancing the steam gasification reactivity of coal by boosting the factors affecting the gasification reactions in the stepwise coal conversion,” Energy Sources,
Part A, 32, 1727–1736 (2010).
68. Sharma, D.K., “Modelling of steam gasification reactions for reactor design,” Energy
Sources, Part A, 33, 57–71 (2011).
69. Inayat, A., Ahmad, M., Yusup, S., and Abdul Mutalib, M., “Biomass steam gasification
with in-situ CO 2 capture for enriched hydrogen gas production: A reaction kinetics modeling approach,” Energies, 3, 1472–1484 (2010).
70. Demirbas, A., “Hydrogen from mosses and algae via pyrolysis and steam gasification,”
Energy Sources, Part A, 32, 172–179 (2010).
71. Li, J., Liu, J., Liao, S., Zhou, x., and Yan, R., “Syn-gas production from catalytic steam
gasification of municipal solid wastes in a combined fixed bed reactor,” Proceedings of
the International Conference on Intelligent System Design and Engineering Application,
November 29–December 1, IEE Computer Society, 530–534 (2010).
72. Demirbas, M., “Hydrogen from various biomass species via pyrolysis and steam gasification processes,” Energy Sources, Part A, 28, 245–252 (2006).
73. Demirbas, A., “Hydrogen rich gases from biomass via pyrolysis and air-steam gasification,” Energy Sources, Part A, 31, 1728–1736 (2009).
74. Salaices, E., de Lasa, H., and Serrano, B., “Steam gasification of a cellulose surrogate
over a fluidizable Ni/alpha-alumina catalyst: A kinetic model,” AIChE Journal (2011),
doi:10.1002/aic.12696.
75. Hofbauer, H., Stoiber, H., and Veronik, G., “Gasification of organic material in a novel
fluidization bed system,” Proceedings of the 1st SCEJ Symposium on Fluidization,
December 13–14, Kagaku Kogaku Kyokai, Tokyo, Japan (1995).
76. Hofbauer, H., Veronik, G., Fleck, T., and Rauch, R., “The FICFB gasification process,”
in Bridgwater, A.V. and Boocock, D. (eds.), Developments in Thermochemical Biomass
Conversion, Vol. 2. Blackie Academic & Professional, Glasgow, 1016–1025 (1997).
77. Hofbauer, H., Rauch, R., Löffler, G., Kaiser, S., Fercher, E., and Tremmel, H., “Six years
experience with the FICFB-gasification process,” in Palz, W. et al. (eds.), Proceedings
of the 12th European Biomass Conference, ETA-Florence, Florence, Italy, Elsevier,
982–985 (2002).
102
Water for Energy and Fuel Production
CO 2 -reforming of methane on metal sulfide catalysts,” Catalysis Letters, 35 (1/2), 39–43
(1995).
61. Rozovskii, Y. and Lin, G., Theoretical Bases of Methanol Synthesis. Khimia, Moscow,
Russia, 190.
Also as “Fundamentals of methanol synthesis and decomposition,” Topics in
Catalysis, 22 (3/4), 137 (2003).
62. Gao, J., Hou, Z.Y., Shen, K., Lou, H., Fei, J.H., and Zheng, x.M. “Autothermal reforming and partial oxidation of methane in fluidized reactor over highly dispersed Ni catalyst
prepared from Ni complex,” Chinese Journal of Chemistry, 24 (6), 721–723 (2006).
63. Halmann, M. and Steinfeld, A., “Thermoneutral tri-reforming of flue gases from coal
and gas fired power stations,” Catalysis Today, 115, 170–178 (2006).
64. Kang, J.S., Kim, D., Lee, S., Hong, S., and Moon, D., “Nickel based tri-reforming catalyst for the production of synthesis gas,” Applied Catalysis A: General, 332, 153–158
(2007).
65. Puolakka, J., “CO 2 reforming,” Thesis for the Degree of Licentiate of Science and
Technology, Helsinki University of Technology, Finland (2007).
66. Corella, J., Toledo, J., and Molina, G., “Steam gasification of coal at low-medium
(600-800°C) temperature with simultaneous CO2 capture in fluidized bed at atmospheric pressure: The effect of inorganic species. 1. Literature review and comments,”
Industrial & Engineering Chemistry Research, 45, 6137–6146 (2006).
67. Sharma, D.K., “Enhancing the steam gasification reactivity of coal by boosting the factors affecting the gasification reactions in the stepwise coal conversion,” Energy Sources,
Part A, 32, 1727–1736 (2010).
68. Sharma, D.K., “Modelling of steam gasification reactions for reactor design,” Energy
Sources, Part A, 33, 57–71 (2011).
69. Inayat, A., Ahmad, M., Yusup, S., and Abdul Mutalib, M., “Biomass steam gasification
with in-situ CO 2 capture for enriched hydrogen gas production: A reaction kinetics modeling approach,” Energies, 3, 1472–1484 (2010).
70. Demirbas, A., “Hydrogen from mosses and algae via pyrolysis and steam gasification,”
Energy Sources, Part A, 32, 172–179 (2010).
71. Li, J., Liu, J., Liao, S., Zhou, x., and Yan, R., “Syn-gas production from catalytic steam
gasification of municipal solid wastes in a combined fixed bed reactor,” Proceedings of
the International Conference on Intelligent System Design and Engineering Application,
November 29–December 1, IEE Computer Society, 530–534 (2010).
72. Demirbas, M., “Hydrogen from various biomass species via pyrolysis and steam gasification processes,” Energy Sources, Part A, 28, 245–252 (2006).
73. Demirbas, A., “Hydrogen rich gases from biomass via pyrolysis and air-steam gasification,” Energy Sources, Part A, 31, 1728–1736 (2009).
74. Salaices, E., de Lasa, H., and Serrano, B., “Steam gasification of a cellulose surrogate
over a fluidizable Ni/alpha-alumina catalyst: A kinetic model,” AIChE Journal (2011),
doi:10.1002/aic.12696.
75. Hofbauer, H., Stoiber, H., and Veronik, G., “Gasification of organic material in a novel
fluidization bed system,” Proceedings of the 1st SCEJ Symposium on Fluidization,
December 13–14, Kagaku Kogaku Kyokai, Tokyo, Japan (1995).
76. Hofbauer, H., Veronik, G., Fleck, T., and Rauch, R., “The FICFB gasification process,”
in Bridgwater, A.V. and Boocock, D. (eds.), Developments in Thermochemical Biomass
Conversion, Vol. 2. Blackie Academic & Professional, Glasgow, 1016–1025 (1997).
77. Hofbauer, H., Rauch, R., Löffler, G., Kaiser, S., Fercher, E., and Tremmel, H., “Six years
experience with the FICFB-gasification process,” in Palz, W. et al. (eds.), Proceedings
of the 12th European Biomass Conference, ETA-Florence, Florence, Italy, Elsevier,
982–985 (2002).
102
Water for Energy and Fuel Production