325
Water Dissociation Technologies for Hydrogen
70. Spanhel, L., Weller, H., and Hanglein, A., Journal of the American Chemical Society,
109, 6632 (1987).
71. Navarro, R., del Valle, F., and Fierro, J., International Journal of Hydrogen Energy, 33,
4265 (2008).
72. Tsuji, I. and Kudo, A., Journal of Photochemistry and Photobiology A, 156, 249 (2003).
73. Kudo, A., Nishiro, R., Iwase, A., and Kato, H., Chemical Physics, 339, 104 (2007).
74. Tsuji, I., Kato, H., and Kudo, A., Angewandte Chemie International Edition, 117, 3631
(2005); Angewandte Chemie International Edition, 44, 3565 (2005).
75. Kudo, A., Tsuji, I., and Kato, H., Chemical Communications, 1958 (2002).
76. Tsuji, I., Kato, H., Kobayashi, H., and Kudo, A., Journal of Physical Chemistry B, 109,
7323 (2005).
77. Prince, R. and Kheshgi, H., “The photobiological production of hydrogen: Potential
efficiency and effectiveness as a renewable fuel,” Critical Reviews in Microbiology, 31,
19–31 (2005).
78. Ghysels, B. and Franck, F., “Hydrogen photo-evolution upon S deprivation stepwise: An
illustration of microalgal photosynthetic and metabolic flexibility and a step stone for
future biological methods of renewable H 2 production,” Photosynthesis Research, 106,
145–154 (2010).
79. Mells, A., Zhang, L., Forestier, M., Ghirardi, M., and Seibert, M., “Sustained photobiological hydrogen gas production upon reversible inactivation of oxygen evolution in the
green alga Chlamydomonas reinhardtii,” Plant Physiology, 122, 127–135 (2000).
80. Ghirardi, M., Zhang, L., Lee, J., Flynn, T., Seibert, M., Greenbaum, E., and Melis, A.,
“Microalgae: A green source of renewable H 2 ,” Trends in Biotechnology, 18, 506–511
(2000).
81. Nguyen, A., Thomas-Hall, S., Malnoe, A., Timmins, M., Mussgnug, J., Rupprecht, J.,
Krause, O., Hankamer, B., and Schenk, P., “Transcriptome for photobiological hydrogen
production induced by sulfur deprivation in the green alga Chlamydomonas reinhardtii,”
Eukaryotic Cell, 7 (11), 1965–1979 (2008).
82. Timmins, M., Thomas-Hall, S., Darling, A., Zhang, E., Hankamer, B., Marx, U., and
Schenk, P., “Phylogenetic and molecular analysis of hydrogen producing green algae,”
Journal of Experimental Botany, 60 (6), 1691–1702 (2009).
83. Berberoglu, H. and Pilon, L., “Maximizing the solar to H 2 energy conversion efficiency
of outdoor photobioreactors using mixed cultures,” International Journal of Hydrogen
Energy, 35 (2), 500–510 (2010).
84. Lee, J., “Designer proton channel transgenic algae for photobiological hydrogen production,” PCT International Patent Application WO2007/134340 A2 (2007).
85. Lee, J., “Designer proton channel transgenic algae for photobiological hydrogen production,” US Patent No. 7932437 B2 (2011).
86. Lee, J., “Switchable photosystem-II designer algae for photobiological hydrogen production,” US Patent No. 7642405 B2 (2010).
87. Eastlund, B. and Gough, W., Paper Presented at the 163th National Meeting of American
Chemical Society, April 14, Boston, MA (1972).
88. McWhirter, R., “Spectral Intensities,” in Huddlestone, R. and Leonard, S. (eds.), Plasma
Diagnostic Techniques. Academic Press, New York, 201 (1965).
89. Inoue M., Uehara, R., Hasegawa, N., Gokon, N., Kaneko, H., and Tamaura, Y., “Solar
hydrogen generation with H 2 O/ZnO/MnFe 2 O 4 system,” ISES, Solar World Congress,
Adelaide, Australia 1723–1729 (2001), www.aseanenergy.info/Abstract/32008845.pdf.
90. Brown, L.C., Besenbrauch, G.E., Schultz, K.R., Showalter, S.K., Marshall, A.C.,
Pickard, P.S., and Funk, J.F., “High efficiency generation of hydrogen fuels using thermochemical cycles and nuclear power,” Spring National Meeting of AIChE, Nuclear
Engineering Session THa01 139-Hydrogen Production and Nuclear Power, March
11–15, New Orleans, LA (2002).
Water Dissociation Technologies for Hydrogen
70. Spanhel, L., Weller, H., and Hanglein, A., Journal of the American Chemical Society,
109, 6632 (1987).
71. Navarro, R., del Valle, F., and Fierro, J., International Journal of Hydrogen Energy, 33,
4265 (2008).
72. Tsuji, I. and Kudo, A., Journal of Photochemistry and Photobiology A, 156, 249 (2003).
73. Kudo, A., Nishiro, R., Iwase, A., and Kato, H., Chemical Physics, 339, 104 (2007).
74. Tsuji, I., Kato, H., and Kudo, A., Angewandte Chemie International Edition, 117, 3631
(2005); Angewandte Chemie International Edition, 44, 3565 (2005).
75. Kudo, A., Tsuji, I., and Kato, H., Chemical Communications, 1958 (2002).
76. Tsuji, I., Kato, H., Kobayashi, H., and Kudo, A., Journal of Physical Chemistry B, 109,
7323 (2005).
77. Prince, R. and Kheshgi, H., “The photobiological production of hydrogen: Potential
efficiency and effectiveness as a renewable fuel,” Critical Reviews in Microbiology, 31,
19–31 (2005).
78. Ghysels, B. and Franck, F., “Hydrogen photo-evolution upon S deprivation stepwise: An
illustration of microalgal photosynthetic and metabolic flexibility and a step stone for
future biological methods of renewable H 2 production,” Photosynthesis Research, 106,
145–154 (2010).
79. Mells, A., Zhang, L., Forestier, M., Ghirardi, M., and Seibert, M., “Sustained photobiological hydrogen gas production upon reversible inactivation of oxygen evolution in the
green alga Chlamydomonas reinhardtii,” Plant Physiology, 122, 127–135 (2000).
80. Ghirardi, M., Zhang, L., Lee, J., Flynn, T., Seibert, M., Greenbaum, E., and Melis, A.,
“Microalgae: A green source of renewable H 2 ,” Trends in Biotechnology, 18, 506–511
(2000).
81. Nguyen, A., Thomas-Hall, S., Malnoe, A., Timmins, M., Mussgnug, J., Rupprecht, J.,
Krause, O., Hankamer, B., and Schenk, P., “Transcriptome for photobiological hydrogen
production induced by sulfur deprivation in the green alga Chlamydomonas reinhardtii,”
Eukaryotic Cell, 7 (11), 1965–1979 (2008).
82. Timmins, M., Thomas-Hall, S., Darling, A., Zhang, E., Hankamer, B., Marx, U., and
Schenk, P., “Phylogenetic and molecular analysis of hydrogen producing green algae,”
Journal of Experimental Botany, 60 (6), 1691–1702 (2009).
83. Berberoglu, H. and Pilon, L., “Maximizing the solar to H 2 energy conversion efficiency
of outdoor photobioreactors using mixed cultures,” International Journal of Hydrogen
Energy, 35 (2), 500–510 (2010).
84. Lee, J., “Designer proton channel transgenic algae for photobiological hydrogen production,” PCT International Patent Application WO2007/134340 A2 (2007).
85. Lee, J., “Designer proton channel transgenic algae for photobiological hydrogen production,” US Patent No. 7932437 B2 (2011).
86. Lee, J., “Switchable photosystem-II designer algae for photobiological hydrogen production,” US Patent No. 7642405 B2 (2010).
87. Eastlund, B. and Gough, W., Paper Presented at the 163th National Meeting of American
Chemical Society, April 14, Boston, MA (1972).
88. McWhirter, R., “Spectral Intensities,” in Huddlestone, R. and Leonard, S. (eds.), Plasma
Diagnostic Techniques. Academic Press, New York, 201 (1965).
89. Inoue M., Uehara, R., Hasegawa, N., Gokon, N., Kaneko, H., and Tamaura, Y., “Solar
hydrogen generation with H 2 O/ZnO/MnFe 2 O 4 system,” ISES, Solar World Congress,
Adelaide, Australia 1723–1729 (2001), www.aseanenergy.info/Abstract/32008845.pdf.
90. Brown, L.C., Besenbrauch, G.E., Schultz, K.R., Showalter, S.K., Marshall, A.C.,
Pickard, P.S., and Funk, J.F., “High efficiency generation of hydrogen fuels using thermochemical cycles and nuclear power,” Spring National Meeting of AIChE, Nuclear
Engineering Session THa01 139-Hydrogen Production and Nuclear Power, March
11–15, New Orleans, LA (2002).