76. Renz, M., European Journal of Organic Chemistry, 6, 979–988 (2005).
77. Corma, A., Renz, M., and Schaverien, C., ChemSusChem, 1, 739–741 (2008).
78. Dooley, K., Bhat, A., Plaisance, C., and Roy, A., “Ketones from acid condensation
using supported CeO 2 catalysts: Effect of additives,” Applied Catalysis A: General, 320,
122–133 (2007).
79. Serrano-Ruiz, J. and Dumesic, J., Green Chemistry, 11, 1101–1104 (2009).
80. Gayubo, A., Aguayo, A., Atutxa, A., Aguado, R., and Bilbao, J., Industrial & Engineering
Chemistry Research, 43, 2610–2618 (2004).
81. West, R., Braden, D., and Dumesic, J., Journal of Catalysis, 262, 134–143 (2009).
82. Blommel, P., Keenan, G., Rozmiarek, R., and Cortright, R., International Sugar Journal,
110, 672 (2008).
83. Kunkes, E., Gurbuz, E., and Dumesic, J., Journal of Catalysis, 266, 236–249 (2009).
84. Gurbuz, E., Kunkes, E., and Dumesic, J., Green Chemistry, 12, 223–227 (2010).
85. Gurbuz, E., Kunkes, E., and Dumesic, J., Applied Catalysis B: Environmental, 94, 134–141
(2010).
86. Huber, G., Cortright, R., and Dumesic, J., Angewandte Chemie International Edition,
43, 1549–1551 (2004).
87. Blommel, P., “Catalytic conversion of carbohydrates to hydrocarbons,” DOE Biomass
R&D TAC Meeting, May 19, Washington, DC (2011).
88. Held, A., “Production of renewable aromatic chemicals using Virent’s catalytic bioforming process,” Frontiers in Biorefining, October 19–22, St. Simons Island, GA (2010).
89. “Hydrogen generation from waste antifreeze via the BioForming process,” VIRENT
Co., 11th Electrochemical Power Sources, July 16, Baltimore, MD (2009).
90. Chang, C., “Mechanism of hydrocarbon formation from methanol,” Studies in Surface
Science and Catalysis, 36, 127–143 (1988).
91. Chang, C., “Methanol to gasoline and olefins,” Chemical Industries, 57, 133–173
(1994).
92. Chang, C., Lang, W., and Silvestri, A., “Conversion of carbonyl compounds to
aromatics, ” US Patent No. 3,907,915 (1975).
93. Chang, C. and Silvestri, A., “MTG: Origin, evolution, operation,” CHEMTECH, 17 (10),
624–631 (1987).
94. De Klerk, A., Nel, R., and Schwarzer, R., “Oxygenate conversion over solid phosphoric
acid,” Industrial & Engineering Chemistry Research, 46 (8), 2377–2382 (1998).
95. Goguen, P., xu, T., Barich, D.H., Skloss, T.W., Song, W., Wang, Z., Nicholas, J.B., and
Haw, J.F., “Pulse-quench catalytic reactor studies reveal a carbon pool mechanism in
methanol to gasoline chemistry on zeolite HZSM-5,” Journal of the American Chemical
Society, 120 (11), 2650–2651 (1998).
96. Chheda, J., Huber, G., and Dumesic, J., “Liquid phase catalytic processing of biomass derived oxygenated hydrocarbons to fuels and chemicals,” Angewandte Chemie
International Edition, 46 (38), 7164–7183 (2007).
97 Holmgren, J. and Arena, B., “Solid base as catalysis in aldol condensation,” US Patent
No. 5,254,743 (1993).
98. King, F., Kelly, G., and Stitt, E., “Improved base catalysts for industrial condensation
reactions,” Studies in Surface Science and Catalysis, 145, 443–446 (2003).
182
Water for Energy and Fuel Production
77. Corma, A., Renz, M., and Schaverien, C., ChemSusChem, 1, 739–741 (2008).
78. Dooley, K., Bhat, A., Plaisance, C., and Roy, A., “Ketones from acid condensation
using supported CeO 2 catalysts: Effect of additives,” Applied Catalysis A: General, 320,
122–133 (2007).
79. Serrano-Ruiz, J. and Dumesic, J., Green Chemistry, 11, 1101–1104 (2009).
80. Gayubo, A., Aguayo, A., Atutxa, A., Aguado, R., and Bilbao, J., Industrial & Engineering
Chemistry Research, 43, 2610–2618 (2004).
81. West, R., Braden, D., and Dumesic, J., Journal of Catalysis, 262, 134–143 (2009).
82. Blommel, P., Keenan, G., Rozmiarek, R., and Cortright, R., International Sugar Journal,
110, 672 (2008).
83. Kunkes, E., Gurbuz, E., and Dumesic, J., Journal of Catalysis, 266, 236–249 (2009).
84. Gurbuz, E., Kunkes, E., and Dumesic, J., Green Chemistry, 12, 223–227 (2010).
85. Gurbuz, E., Kunkes, E., and Dumesic, J., Applied Catalysis B: Environmental, 94, 134–141
(2010).
86. Huber, G., Cortright, R., and Dumesic, J., Angewandte Chemie International Edition,
43, 1549–1551 (2004).
87. Blommel, P., “Catalytic conversion of carbohydrates to hydrocarbons,” DOE Biomass
R&D TAC Meeting, May 19, Washington, DC (2011).
88. Held, A., “Production of renewable aromatic chemicals using Virent’s catalytic bioforming process,” Frontiers in Biorefining, October 19–22, St. Simons Island, GA (2010).
89. “Hydrogen generation from waste antifreeze via the BioForming process,” VIRENT
Co., 11th Electrochemical Power Sources, July 16, Baltimore, MD (2009).
90. Chang, C., “Mechanism of hydrocarbon formation from methanol,” Studies in Surface
Science and Catalysis, 36, 127–143 (1988).
91. Chang, C., “Methanol to gasoline and olefins,” Chemical Industries, 57, 133–173
(1994).
92. Chang, C., Lang, W., and Silvestri, A., “Conversion of carbonyl compounds to
aromatics, ” US Patent No. 3,907,915 (1975).
93. Chang, C. and Silvestri, A., “MTG: Origin, evolution, operation,” CHEMTECH, 17 (10),
624–631 (1987).
94. De Klerk, A., Nel, R., and Schwarzer, R., “Oxygenate conversion over solid phosphoric
acid,” Industrial & Engineering Chemistry Research, 46 (8), 2377–2382 (1998).
95. Goguen, P., xu, T., Barich, D.H., Skloss, T.W., Song, W., Wang, Z., Nicholas, J.B., and
Haw, J.F., “Pulse-quench catalytic reactor studies reveal a carbon pool mechanism in
methanol to gasoline chemistry on zeolite HZSM-5,” Journal of the American Chemical
Society, 120 (11), 2650–2651 (1998).
96. Chheda, J., Huber, G., and Dumesic, J., “Liquid phase catalytic processing of biomass derived oxygenated hydrocarbons to fuels and chemicals,” Angewandte Chemie
International Edition, 46 (38), 7164–7183 (2007).
97 Holmgren, J. and Arena, B., “Solid base as catalysis in aldol condensation,” US Patent
No. 5,254,743 (1993).
98. King, F., Kelly, G., and Stitt, E., “Improved base catalysts for industrial condensation
reactions,” Studies in Surface Science and Catalysis, 145, 443–446 (2003).
182
Water for Energy and Fuel Production