105
Steam Gasification and Reforming Technologies
116. He, L., Barntsen, H., Ochoa-Fernandez, E., Walmsley, J., Blekkan, E., and Chen, D.,
“Co-Ni catalysts derived from hydrotalcite-like materials for hydrogen production by
ethanol steam reforming,” Top Catalysis, 52, 206–217 (2009).
117. Henpraserttae, S. and Toochinda, P., “Effects of preparation of Cu/Zn over Al 2 O 3
catalysts for hydrogen production from methanol reforming,” Suranaree Journal of
Science and Technology, 16 (2), 103–112 (2009).
118. Lee, S., Methanol Synthesis Technology. CRC Press, New York (1989).
119. Purnama, H., Ressler, T., Jentoft, R., Soerijanto, H., Schlogl, R., and Schomacker, R.,
“Steam reforming of methanol on Cu/ZrO2 catalysts,” Applied Catalysis A, 259, 83
(2004).
120. Lindström, B., “Development of methanol reformer for fuel cell vehicles,” Thesis,
Department of Chemical Engineering and Technology, KTH, Stockholm, Sweden (2003).
121. Lindström, B. and Pettersson, L.J., “Deactivation of copper-basedcatalysts for fuel cell
applications,” Catalysis Letters, 74, 27–30 (2001).
122. Lindström, B. and Pettersson, L.J., “Steam reforming of methanol for fuel cell applications,” Proceedings of the 9th Nordic Symposium on Catalysis, June 4–6, Lidingö,
Sweden (2000).
123. Lindström, B. and Pettersson, L.J., “A study of ethanol and methanol as a fuel for
onboard hydrogen generation by steam reforming on copper-based catalysts,”
Proceedings of the 13th International Symposium on Alcohol Fuels, July 3–6,
Stockholm, Sweden (2000).
124. Lindström, B. and Pettersson, L.J., “Steam reforming of methanol for automotive applications,” Proceedings of the 2000 Fuel Cell Seminar, October, Portland, OR (2000).
125. Lindström, B., Agrell, J., and Pettersson, L.J., “Combinatorial reforming of methanol
for hydrogen generation over monolithic catalysts,” Proceedings of the 17th North
American Catalysis Society Meeting, June 3–8, Toronto, ON (2001).
126. Lindström, B. and Pettersson, L.J., “Catalytic steam reforming of methanol for automotive fuel cell applications,” Proceedings of the 5th European Congress on Catalysis,
September 2–7, Limerick, Ireland (2001).
127. Lindström, B. and Pettersson, L.J., “Steam reforming of methanol over copper-based
monoliths: The effects of zirconia doping,” Proceedings of the 7th Grove Fuel Cell
Symposium, September 11–13, London (2001).
128. Kolb, G., Keller, S., Tiemann, D., Schelhaas, K., Schürer, J., and Wiborg, O., “Design
and operation of a compact microchannel 5 kWel, net methanol steam reformer with
novel Pt/In 2 O 3 catalyst for fuel cell applications,” Chemical Engineering Journal,
207–208, 388–402 (2012).
129. Lindström, B., Pettersson, L.J., and Menon, P.G., “Influence of the operating conditions
on the performance of a methanol reformer,” Proceedings of the 10th Nordic Symposium
on Catalysis, June 2–4, Helsingør, Denmark (2002).
130. Zhang, L., Pan, L.-W., Ni, C.-J., Zhao, S.-S., Wang, S.-D., Hu, Y.-K., Wang, A.-J.,
and Jiang, K., “Optimization of methanol steam reforming for hydrogen production,”
Journal of Fuel Chemistry and Technology, 41 (1), 116–122 (2013).
131. Pan, L. and Wang, S., “Modeling of a compact plate-fin reformer for methanol steam
reforming in fuel cell systems,” Chemical Engineering Journal, 108, 51–58 (2005).
132. Pan, L. and Wang, S., “Methanol steam reforming in a compact plate-fin reformer for
fuel cell systems,” International Journal of Hydrogen Energy, 30, 973–979 (2005).
133. Pan, L., Ni, C., Zhang, x., Yuan, Z., Zhang, C., and Wang, S., “Study on a compact
methanol reformer for a miniature fuel cell,” International Journal of Hydrogen Energy,
36, 319–325 (2011).
134. Li, Z., Gao, D., Chang, L., Liu, P., and Pistikopoulos, E., “Coal-derived methanol for
hydrogen vehicles in china: Energy, environment and economic analysis for distributed
reforming,” Chemical Engineering Research and Design, 88, 73–80 (2010).
Steam Gasification and Reforming Technologies
116. He, L., Barntsen, H., Ochoa-Fernandez, E., Walmsley, J., Blekkan, E., and Chen, D.,
“Co-Ni catalysts derived from hydrotalcite-like materials for hydrogen production by
ethanol steam reforming,” Top Catalysis, 52, 206–217 (2009).
117. Henpraserttae, S. and Toochinda, P., “Effects of preparation of Cu/Zn over Al 2 O 3
catalysts for hydrogen production from methanol reforming,” Suranaree Journal of
Science and Technology, 16 (2), 103–112 (2009).
118. Lee, S., Methanol Synthesis Technology. CRC Press, New York (1989).
119. Purnama, H., Ressler, T., Jentoft, R., Soerijanto, H., Schlogl, R., and Schomacker, R.,
“Steam reforming of methanol on Cu/ZrO2 catalysts,” Applied Catalysis A, 259, 83
(2004).
120. Lindström, B., “Development of methanol reformer for fuel cell vehicles,” Thesis,
Department of Chemical Engineering and Technology, KTH, Stockholm, Sweden (2003).
121. Lindström, B. and Pettersson, L.J., “Deactivation of copper-basedcatalysts for fuel cell
applications,” Catalysis Letters, 74, 27–30 (2001).
122. Lindström, B. and Pettersson, L.J., “Steam reforming of methanol for fuel cell applications,” Proceedings of the 9th Nordic Symposium on Catalysis, June 4–6, Lidingö,
Sweden (2000).
123. Lindström, B. and Pettersson, L.J., “A study of ethanol and methanol as a fuel for
onboard hydrogen generation by steam reforming on copper-based catalysts,”
Proceedings of the 13th International Symposium on Alcohol Fuels, July 3–6,
Stockholm, Sweden (2000).
124. Lindström, B. and Pettersson, L.J., “Steam reforming of methanol for automotive applications,” Proceedings of the 2000 Fuel Cell Seminar, October, Portland, OR (2000).
125. Lindström, B., Agrell, J., and Pettersson, L.J., “Combinatorial reforming of methanol
for hydrogen generation over monolithic catalysts,” Proceedings of the 17th North
American Catalysis Society Meeting, June 3–8, Toronto, ON (2001).
126. Lindström, B. and Pettersson, L.J., “Catalytic steam reforming of methanol for automotive fuel cell applications,” Proceedings of the 5th European Congress on Catalysis,
September 2–7, Limerick, Ireland (2001).
127. Lindström, B. and Pettersson, L.J., “Steam reforming of methanol over copper-based
monoliths: The effects of zirconia doping,” Proceedings of the 7th Grove Fuel Cell
Symposium, September 11–13, London (2001).
128. Kolb, G., Keller, S., Tiemann, D., Schelhaas, K., Schürer, J., and Wiborg, O., “Design
and operation of a compact microchannel 5 kWel, net methanol steam reformer with
novel Pt/In 2 O 3 catalyst for fuel cell applications,” Chemical Engineering Journal,
207–208, 388–402 (2012).
129. Lindström, B., Pettersson, L.J., and Menon, P.G., “Influence of the operating conditions
on the performance of a methanol reformer,” Proceedings of the 10th Nordic Symposium
on Catalysis, June 2–4, Helsingør, Denmark (2002).
130. Zhang, L., Pan, L.-W., Ni, C.-J., Zhao, S.-S., Wang, S.-D., Hu, Y.-K., Wang, A.-J.,
and Jiang, K., “Optimization of methanol steam reforming for hydrogen production,”
Journal of Fuel Chemistry and Technology, 41 (1), 116–122 (2013).
131. Pan, L. and Wang, S., “Modeling of a compact plate-fin reformer for methanol steam
reforming in fuel cell systems,” Chemical Engineering Journal, 108, 51–58 (2005).
132. Pan, L. and Wang, S., “Methanol steam reforming in a compact plate-fin reformer for
fuel cell systems,” International Journal of Hydrogen Energy, 30, 973–979 (2005).
133. Pan, L., Ni, C., Zhang, x., Yuan, Z., Zhang, C., and Wang, S., “Study on a compact
methanol reformer for a miniature fuel cell,” International Journal of Hydrogen Energy,
36, 319–325 (2011).
134. Li, Z., Gao, D., Chang, L., Liu, P., and Pistikopoulos, E., “Coal-derived methanol for
hydrogen vehicles in china: Energy, environment and economic analysis for distributed
reforming,” Chemical Engineering Research and Design, 88, 73–80 (2010).