Hydrogen Production Technologies With Specific Reference to Biomass

Sushmita Mohapatra


One of the environmental threats our planets is facing today is the long term changes in the earth’s temperature and climatic pattern known as Global Climate Change. The emissions of the six green house gases i.e. Carbon dioxide, Methane, Nitrous Oxide, Hydrofluoro carbons (HCFs), Perflouro carbons (PFCs), Sulfur Hexaflouride (SF6) from human activities have influenced the global climate. In the transportation sector light vehicles are responsible for  the release of significant amount of carbon dioxide, volatile organic compound (VOC), carbon monoxide and nitrogen oxide (NOx) emissionsn . Thus efforts are made to diversify our energy supply particularly for the transportation sector and to find cleaner fuels. Hydrogen can be considered  as a clean  fuel  but as of today  it is not a primary energy source  but is considered an energy carrier. Hence it must be manufactured before it is used as a fuel. Recently there has been international attention on the development of new hydrogen technologies as a potential solution to the current fears of global warming. Fuel processing technologies convert a hydrogen containing material such as gasoline, ammonia, or methanol into a hydrogen rich stream . There are many processes for hydrogen production. Hydrogen  can be produced from carbonaceous materials mainly hydrocarbons and/or water by application of either chemical, electrical or thermal energy. It can also be produced by the partial oxidation of hydrocarbons, steam-iron process, water-gas and producer-gas processes. Biomass can also become an important source of hydrogen. Biomass as a product of photosynthesis is a renewable resource that can be used for sustainable production of hydrogen. Except for very low cost feedstocks and plants like switchgrass direct production of hydrogen from biomass by gasification/water-gas shift technology is economically unfavorable .Alternatively it can be produced by a two-stage process: fast pyrolysis of biomass to generate bio-oil; and subsequently catalytic steam reforming of the oil or its fractions to produce hydrogen. Also in the production of biodiesel from biomass by the transesterification process , glycerol is the main biomass-derived product . Now a days the worldwide trend of increasing production of bio-fuels results in an overproduction of glycerol. The hydrogen production from glycerol by the aqueous-phase reforming process at low temperatures and high pressures has been tried on various supported catalysts including Pt/Al2O3, Pd/ Al2O3. Hydrogen can also be produced by the Aqueous Phase Reforming (APR) process which generates  hydrogen-rich gas streams from biomass-derived compounds such as glycerol, sugars, and sugar alcohols.  The reaction of these oxygenated compounds takes place in a single step reactor process compared to the three or more reaction steps required for hydrogen generation conventionally carried out by non-renewable fossil fuels. The reforming of these reactions takes place in the liquid phase. Hence attempts are made to produce hydrogen through various techniques all across the globe to achieve economically viable process .  This paper reviews the technologies related to hydrogen production from  renewable biomass resources including reforming (steam, partial oxidation, autothermal,plasma, and aqueous phase) and pyrolysis.


Hydrogen , Biomass, Glycerol, Fuel processing technologies

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J.D. Holladay , J. Hu, D.L. King, Y. Wang An overview of hydrogen production technologies Catalysis Today 139 (2009) 244–260

O. Yamada, Thin Solid Films 509 (2006) 207–211.

M. Steinberg, Fuel Cell Science, Engineering and Technology–2004, A Highly Efficient Combined Cycle Fossil and Biomass Fuel Power Generation and Hydrogen Production Plant with Zero CO2 Emission, American Society of Mechanical Engineers, New York, United States/Rochester, NY, United States, 2004, pp. 401–408.

J.A. Satrio, B.H. Shanks, T.D. Wheelock, AIChE Annual Meeting Conference Proceedings, Application of combined catalyst/sorbent on hydrogen generation from biomass gasification, American Institute of Chemical Engineers, New York, NY, United States/Austin, TX, United States, (2004), pp. 297–301.

P. Lu, Z. Xiong, T. Wang, J. Chang, C. Wu, Y. Chen, Taiyangneng Xuebao/Acta Energiae Solaris Sinica 24 (2003) 758–764.

H. Jacobsen, Angewandte Chemie—International Edition 43 (2004) 1912– 1914.

G. Chen, X. Lv, Q. Li, N. Deng, L. Jiao, in: Proceedings of the ASME Turbo Expo 2004, Production of hydrogen-rich gas through pyrolysis of biomass in a twostage reactor, American Society of Mechanical Engineers, New York, NY, United States/Vienna, Austria, (2004), pp. 711–721.

G. Weber, Q. Fu, H. Wu, Developments in Chemical Engineering and Mineral Processing 14 (2006) 33–49.

S. Vasileiadis, Z. Ziaka-Vasileiadou, Chemical Engineering Science 59 (2004) 4853–4859.

D.B. Levin, H. Zhu, M. Beland, N. Cicek, B.E. Holbein, Bioresource Technology 98 (2007) 654–660.

A. Demirbas, Progress in Energy and Combustion Science 30 (2004) 219–230.

M. Asadullah, S.-I. Ito, K. Kunimori, M. Yamada, K. Tomishige, Environmental Science and Technology 36 (2002) 4476–4481.

J.D. Holladay *, J. Hu, D.L. King, Y. Wang Catalysis Today 139 (2009) 244–260 An overview of hydrogen production technologies

Stefan Czernik, Richard French, Calvin Feik, and Esteban Chornet Proceedings of the 2000 DOE Hydrogen Program Review Production of Hydrogen from Biomass-Derived Liquids

Brazilian biofuel program: an overview, C R Soccel, et. al., Journal of Scientific and Industrial Research, Vol. 64 (2005), 897-904.

Aonsurang Boonyanuwat, Andreas Jentys, Johannes A. Lercher Technische Universität München, Department Chemie, Lehrstuhl II für Technische Chemie, Lichtenbergstraße 4, 85747 Garching, Germany Hydrogen production by aqueous-phase reforming of glycerol on supported metal catalysts

R.R. Davda, J.W. Shabaker, G.W. Huber, R.D. Cortright, J.A. Dumesic, Applied Catalysis B: Environmental 43 (2003) 13–26.

T. Hammer, T. Kappes, M. Baldauf, Catalysis Today 89 (2004) 5–14.

R.B. Biniwale, A. Mizuno, M. Ichikawa, Applied Catalysis A: General 276 (2004) 169–177.

L. Bromberg, D.R. Cohn, A. Rabinovich, N. Alexeev, International Journal of Hydrogen Energy 24 (1999) 1131–1137.

H. Sekiguchi, Y. Mori, Thin Solid Films, Steam Plasma Reforming Using Microwave Discharge, Elsevier, Jeju Island, South Korea, 2003, pp. 44–48.

L. Bromberg, D.R. Cohn, A. Rabinovich, N. Alexeev, International Journal of Hydrogen Energy 24 (1999) 1131–1137.


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