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Progress in Chemistry 2005, Vol. 17 Issue (03): 423-429 Previous Articles   Next Articles

• Review •

Recent Advances in Hydrogen Generation with Chemical Methods

Wu Chuan;Zhang Huamin*;Yi Baolian   

  1. Fuel Cell R&D Center, Dalian Institute.of Chemical Physics, Chinese Academy of Sciences,Dalian 116023,China
  • Received: Revised: Online: Published:
  • Contact: Zhang Huamin
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Recent advances in hydrogen generation with chemical methods are reviewed. As an attractive alternative energy source, hydrogen energy has been studied widely and intensively. Among the three hydrogen generation modes, (l) with chemical methods (2) from electrolysis of water (3) by biologic methods, the first is the major method for mass production of hydrogen, in which catalysis reforming holds a large proportion of the total output. Along with the developments of fuel cell techniques, novel hydrogen generation techniques, such as hydrogen generation with biomasses, metals, solar energy or metal hydrides, have attracted more and more attention. These hydrogen generation techniques have a promising future in the coming hydrogen age, accompanied with the R&D of fuel cells and hydrogen engines.
Key words: hydrogen generation, fuel cells, reforming, biomasses, metals, solar energy, metal hydrides

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[ 1 ] Hefner III R A. Int . J . Hydrogen Energy , 1995 , 20 (12) : 945 —948
[ 2 ] Cohen R , Olesen O , Faintani J , Suljak G, US 4 870 511 ,1989
[ 3 ] Wananabe T, Hirata T, Mizusawa M. IHI Eng. Rev. , 4 (Oct . ) ,1988
[ 4 ] Astanovsky D L , Astanovsky L Z, Raikov B S , Korchaka N I.Hydrogen Energy Progress IX, Proceeding of 9th World Energy Conference. Paris ,1992
[ 5 ] Wertheim R. Sederquist R. US 4 816 353 , 1989
[ 6 ] Dicks A L. J . Power Sources , 1996 , 61 (1P2) : 113 —124
[ 7 ] Rampe T, Heinzel A , Vogel B. J . Power Sources , 2000 , 86 (1/2) : 536 —541
[ 8 ] Han J , Kim Il S , Choi K S. Int . J . Hydrogen Energy , 2002 , 27(10) : 1043 —1047
[ 9 ] Edwards N , Ellis S R , Frost J C , Golunski S E , van Keulen A N J , Lindewald N G, Reinkingh J G. J . Power Sources , 1998 , 71(1/2) : 123 —128
[10] Lindstrêm B , Pettersson L J . Int . J . Hydrogen Energy , 2001 , 26(9) : 923 —933
[11] Klouz V , Fierro V , Denton P , Katz H , Lisse J P , Bouvot Mauduit S , Mirodatos C. J . Power Sources , 2002 , 105 (1) : 26 —34
[12] Mariìo F J , Cerrella E G, Duhalde S , Jobbagy M, Laborde M A.Int . J . Hydrogen Energy , 1998 , 23 (12) : 1095 —1101
[13] Xu X, Matsumura Y, Stenberg J , Antal M J Jr. Ind. Eng.Chem. Res. , 1996 , 35 (8) : 2522 —2530
[14] Minowa T, Ogi T. Catal . Today , 1998 , 45 (1P4) : 411 —416
[15] Kruse A , Meier D , Rimbrecht P , Schacht M. Ind. Eng. Chem.Res. , 2000 , 39 (12) : 4842 —4848
[16] Watanabe M, Inomata H , Arai K. Biomass and Bioenergy , 2002 ,22 (5) : 405 —410
[17] Fujishima A , Honda K. Nature , 1972 , 238 : 37
[18] Li Y, Lu G, Li S. Applied Catalysis A: General , 2001 , 214 (2) :179 —185
[19] Sayamak K, Arakawa H. J . Phys. Chem. , 1993 , 97 (3) : 531 —533
[20] Liu S H , Wang H P. Int . J . Hydrogen Energy , 2002 , 27 (9) :859 —862
[21] Domen K, Kudo A , Onishi T. J . Catal . , 1986 , 102 (1) : 92 —98
[22] Shangguan W, Zhang M, Yuan J , Gu M. Solar Energy Materials &Solar Cells , 2003 , 76 (2) : 201 —204
[23] Shangguan W, Yoshida A. Solar Energy Materials & Solar Cells ,2001 , 69 (2) : 189 —194
[24] Kojima Y, Suzuki K, Fukumoto K, Sasaki M, Yamamoto T,Kawai Y, Hayashi H. Int . J . Hydrogen Energy , 2002 , 27 (10) :1029 —1034
[25] Amendola S C , Binder M, Kelly M T, Petillo P J , Sharp-Goldman S L. Advances in Hydrogen Energy(eds. Grégoire Padró C E , Lau F) . New York : Kluwer Academic/Plenum Publishers , 2002.69 —86
[26] Han J , Lee S M, Chang H. J . Power Sources , 2002 , 112 (2) :484 —490
[27] Uehara K, Takeshita H , Kotaka H. J . Mater. Pro. Tech. ,2002 , 127 : 174 —177
[28] Otsuka K, Yamada C , Kaburagi T, Takenaka S. Int . J . Hydrogen Energy , 2003 , 28 (3) : 335 —342
[29] Abe R , Sayama K, Arakawa H. Chem. Phys. Letters , 2003 , 371(3/4) : 360 —364
[30] Lee K, Nam W S , Han G Y. Int . J . Hydrogen Energy , 2004 , 29(13) : 1343 —1347
[31] Steinfeld A , Kuhn P , Reller A , Palumbo R , Murray J , Tamaura Y. Int . J . Hydrogen Energy , 1998 , 23 (9) : 767 —774
[32] Wu C , Zhang H , Yi B. Catal . Today , 2004 , 93P95 : 477 —483
[33] Kojima Y, Kawai Y, Kimbara M, Nakanishi H , Matsumoto S.Int . J . Hydrogen Energy , 2004 , 29 (12) : 1213 —1217
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