154
Water for Energy and Fuel Production
110. Bienkowski, P.R., Narayan, R., Greenkorn, R.A., and Choa, K.C., Industrial &
Engineering Chemistry Research, 26, 206 (1987).
111. Graff, R.A. and Brandes, S.D., Proceedings of the New Fuel Forms Workshop, US DOE
Fossil Energy, Washington, DC, 35 (1986).
112. Graff, R.A. and Brandes, S.D., Energy & Fuels, 1, 84 (1987).
113. Brandes, S.D., Graff, R.A., Gorbaty, M.L., and Siskin, M., Energy & Fuels, 3, 494
(1989).
114. Khan, M.R., Chen, W.-Y., and Suuberg, E.M., Energy & Fuels, 3, 223 (1989).
115. Ross, D.S., Green, T.K., Mansani, R., and Hum, G.P., Energy & Fuels, 1, 287 (1987).
116. Ross, D.S., Green, T.K., Mansani, R., and Hum, G.P., Energy & Fuels, 1, 292 (1987).
117. Ross, D.S. and Hirschon, A., American Chemical Society, Division of Fuel Chemistry,
preprint, 35 (1), 37 (1990).
118. Ross, D.S., Hirschon, A., Tse, D.S., and Loo, B.H., American Chemical Society, Division
of Fuel Chemistry, preprint, 35 (2), 352 (1990).
119. Ross, D.S., McMillen, D., Ogier, W, Fleming, R., and Hum, G., “Exploratory study
of coal conversion chemistry,” Quarterly Report No. 4, February 19–May 18, DOE/
PC/40785-4, 26ff (1982).
120. Yoneyyama, Y., Okamura, M., Morinaga, K., and Tsubaki, N., “Role of water in hydrogenation of coal without catalyst addition,” Energy & Fuels, 11, 1–8 (2001).
121. Ross, D.S. and Blessing, J.D., Fuel, 57, 379 (1978).
122. Ross, D.S., Blessing, J.E., Nguyen, Q.C., and Hum, G.P., Fuel, 63, 1206 (1984).
123. Ross, D.S., Nguyen, Q.C., and Hum, G.P., Fuel, 3, 1211 (1984).
124. Anderson, K., “Hydrothermal dissolution of coal and other organic solids,” SIUC
Technology Expo, Carbondale, IL (October 9, 2009).
125. Wibberley, L., Palfreyman, D., and Scaife, P., “Efficient use of coal water fuels,”
Technology Assessment Report No. 74, CSIRO Energy Technology, New South Wales
(April 2008).
126. Wibberley, L., “Alternative pathways to low emission electricity,” COAL21 Conference,
September 18–19, Crown Plaza, Hunter Valley, CA (2007).
127. Schwartz, E., “Process for the production of low-polluting CWF,” in Sens, P. and
Wilkinson, J. (ed.), Coal–Water Mixtures, Elsevier, New York (1987).
128. “Available and emerging technologies for reducing greenhouse gas emissions from
coal-fired electric generating units,” prepared by sector policies and programs division,
Office of Air quality planning and standards, EPA, Research Triangle, NC (October
2010).
129. “Clean coal technologies in Japan—Technology innovation in the coal industry,” Japan
Coal Energy Center Report, NEDO, Tokyo, Japan (January 2007).
130. Mahesh, J. and Smit, F., “Engineering development of advanced physical fine coal
cleaning for premium fuel applications,” AMAx Research Centre, DOE Contract No.
DE-AC22-92PC92208 (1993).
131. Cui, L., An, L., Gong, W., and Jiang, H., “A novel process for preparation of ultra-clean
micronised coal by high pressure water jet communication technique,” Journal of Fuel,
86 (5–6), 750 (2007).
132. Mazurkiewicz, D., “Investigation of ultra-fine coal disintegration effect by high pressure
water jet,” Rock Mechanics and Explosives Research Center, University of Missouri,
Rolla, MI (2002), http://www.wjta.org/Book%203/4_1_Mazurkiewicz.pdf.
133. Brooks, P., Clark, K., Langley, J., Lothringer, G., and Waugh, B., “UCC as a gas turbine
fuel” (1999), http://www.australiancoal.csiro.au/pdfs/ucc.pdf.
134. Steel, K. and Patrick, J., “The production of ultra clean coal by sequential leaching with
HF followed by HNO 3 ,” Fuel, 82, 1917 (2003).
135. Steel, K. and Patrick, J., “Regeneration of HF and selective separation of Si(IV) in a
process for producing ultra clean coal,” Fuel Processing Technology, 86 (2), 179 (2004).
Water for Energy and Fuel Production
110. Bienkowski, P.R., Narayan, R., Greenkorn, R.A., and Choa, K.C., Industrial &
Engineering Chemistry Research, 26, 206 (1987).
111. Graff, R.A. and Brandes, S.D., Proceedings of the New Fuel Forms Workshop, US DOE
Fossil Energy, Washington, DC, 35 (1986).
112. Graff, R.A. and Brandes, S.D., Energy & Fuels, 1, 84 (1987).
113. Brandes, S.D., Graff, R.A., Gorbaty, M.L., and Siskin, M., Energy & Fuels, 3, 494
(1989).
114. Khan, M.R., Chen, W.-Y., and Suuberg, E.M., Energy & Fuels, 3, 223 (1989).
115. Ross, D.S., Green, T.K., Mansani, R., and Hum, G.P., Energy & Fuels, 1, 287 (1987).
116. Ross, D.S., Green, T.K., Mansani, R., and Hum, G.P., Energy & Fuels, 1, 292 (1987).
117. Ross, D.S. and Hirschon, A., American Chemical Society, Division of Fuel Chemistry,
preprint, 35 (1), 37 (1990).
118. Ross, D.S., Hirschon, A., Tse, D.S., and Loo, B.H., American Chemical Society, Division
of Fuel Chemistry, preprint, 35 (2), 352 (1990).
119. Ross, D.S., McMillen, D., Ogier, W, Fleming, R., and Hum, G., “Exploratory study
of coal conversion chemistry,” Quarterly Report No. 4, February 19–May 18, DOE/
PC/40785-4, 26ff (1982).
120. Yoneyyama, Y., Okamura, M., Morinaga, K., and Tsubaki, N., “Role of water in hydrogenation of coal without catalyst addition,” Energy & Fuels, 11, 1–8 (2001).
121. Ross, D.S. and Blessing, J.D., Fuel, 57, 379 (1978).
122. Ross, D.S., Blessing, J.E., Nguyen, Q.C., and Hum, G.P., Fuel, 63, 1206 (1984).
123. Ross, D.S., Nguyen, Q.C., and Hum, G.P., Fuel, 3, 1211 (1984).
124. Anderson, K., “Hydrothermal dissolution of coal and other organic solids,” SIUC
Technology Expo, Carbondale, IL (October 9, 2009).
125. Wibberley, L., Palfreyman, D., and Scaife, P., “Efficient use of coal water fuels,”
Technology Assessment Report No. 74, CSIRO Energy Technology, New South Wales
(April 2008).
126. Wibberley, L., “Alternative pathways to low emission electricity,” COAL21 Conference,
September 18–19, Crown Plaza, Hunter Valley, CA (2007).
127. Schwartz, E., “Process for the production of low-polluting CWF,” in Sens, P. and
Wilkinson, J. (ed.), Coal–Water Mixtures, Elsevier, New York (1987).
128. “Available and emerging technologies for reducing greenhouse gas emissions from
coal-fired electric generating units,” prepared by sector policies and programs division,
Office of Air quality planning and standards, EPA, Research Triangle, NC (October
2010).
129. “Clean coal technologies in Japan—Technology innovation in the coal industry,” Japan
Coal Energy Center Report, NEDO, Tokyo, Japan (January 2007).
130. Mahesh, J. and Smit, F., “Engineering development of advanced physical fine coal
cleaning for premium fuel applications,” AMAx Research Centre, DOE Contract No.
DE-AC22-92PC92208 (1993).
131. Cui, L., An, L., Gong, W., and Jiang, H., “A novel process for preparation of ultra-clean
micronised coal by high pressure water jet communication technique,” Journal of Fuel,
86 (5–6), 750 (2007).
132. Mazurkiewicz, D., “Investigation of ultra-fine coal disintegration effect by high pressure
water jet,” Rock Mechanics and Explosives Research Center, University of Missouri,
Rolla, MI (2002), http://www.wjta.org/Book%203/4_1_Mazurkiewicz.pdf.
133. Brooks, P., Clark, K., Langley, J., Lothringer, G., and Waugh, B., “UCC as a gas turbine
fuel” (1999), http://www.australiancoal.csiro.au/pdfs/ucc.pdf.
134. Steel, K. and Patrick, J., “The production of ultra clean coal by sequential leaching with
HF followed by HNO 3 ,” Fuel, 82, 1917 (2003).
135. Steel, K. and Patrick, J., “Regeneration of HF and selective separation of Si(IV) in a
process for producing ultra clean coal,” Fuel Processing Technology, 86 (2), 179 (2004).