Analysis of availability and accessibility of hydrogen production: An approach to a sustainable energy system using methane hydrate resources
- Ryunosuke Kikuchi
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It is considered that use of hydrogen as an energy source may contribute to environmental improvement and provide an alternative energy system. Moreover, it is anticipated that hydrogen will be in great demand in the near future for use in such vehicles as fuel cell-based cars. Research and development of a number of advanced methods of hydrogen production (OTEC, water photolysis using a semiconductor, a municipal waste gasification—smelting system, etc.) is currently under way.
A comparison of different hydrogen-rich fuels in this paper shows that methane is advantageous for hydrogen production from the viewpoint of energy efficiency as measured by thermodynamic analysis. This paper therefore proposes combining existing technology for hydrogen production with an unconventional methane source in order to facilitate the realization of a hydrogen energy system: i.e., this paper proposes combining the process of steam reforming, which is commercialized worldwide, with use of untouched natural gas hydrate (NGH) resources. Gas hydrate deposits, which are distributed worldwide, hold great amounts of methane gas and have hardly been touched. This paper presents the economic parameters of NGH development and discusses the concept of devising useful applications of NGHs, with consideration given to (1) independence from current fossil fuels; (2) energy transport using the hydrate system; (3) CO2 sequestration — replacement of methane hydrate with CO2 hydrate in the submarine layer and (4) improvement of current steam reforming of methane by CO2 reuse and zeolite application. This paper thus proposes a new solution that will make a key contribution to the systematic development of a new sustainable energy structure.
- Avery, W.: 2002, ‘Ocean-Thermal Energy Conversion’, Encyclopedia of Physical Science and Technology, Vol. 11, 3rd edn, San Diego, Academic Press, pp. 123–160.
- Breakthrough Technologies Institute: http://www.fuelcells.org/fcfaqs.html.
- British Petroleum p.l.c.: 2002, BP Statistical Review of World Energy, June 2002, London, BP Distribution Services, pp. 22–29.
- Collett, T. and Ginsburg, D.: 1997, ‘Gas hydrates in the Messoyakha gas field of the West Siberian Basin — a re-examination of the geologic evidence’, International Journal of Offshore and Polar Engineering 8(1), 22–29.
- Collett, T.: 2000, ‘Natural gas hydrates: Resources of the 21st Century?’, Status Report of the EMD Meeting, New Orleans, Energy Minerals Division (American Association of Petroleum Geologists), 18–19 November, unpaginated.
- Department of Trade and Industry: 1995, Energy Projections for the UK: Energy Use and Energy-Related Emissions of Carbon Dioxide in the UK, 1995–2020, Energy paper 65, London, Her Majesty’s Stationery Office (HMSO).
- Davis, M: 1995, Institutional Frameworks for Electricity Supply to Rural Communities, Rondebosch, Energy & Development Research Center, p. 8.
- Dooley, J.: 1999, Energy R&D in Japan, Report No. PNNL-12214, Richland, Pacific Northwest National Laboratory, pp. 20–21.
- Electric Power Development Co.: 1995, Conceptual Design of the Total for World Energy Network, Report No. NEDO-WE-NET-9431, Tokyo, New Energy and Industrial Technology Development Organization, Chapter 1.3.
- European Commission: 1996, European Energy to 2020, Report No. SEC (95) 2283, Luxembourg, European Communities, Chapter 1.
- European Environmental Agency: 2000, Transport — Environmental Signals 2000, Copenhagen, European Communities, Chapter 5.
- Euro-Quebec Hydro-Hydrogen Pilot Project: 1993, Investigation on Safety, Regulation and Acceptability of Hydrogen, Final report No. 190, Luxembourg, Commission of the European Communities.
- Gudmundsson, J. and Borrehaug, A.: 1996, ‘Frozen hydrate for transport of natural gas’, Proceeding of the 2nd International Conference on Natural Gas Hydrates, Toulouse, Organizing Committee PROGEP-NGH’96, 2–6 June, pp. 415–421.
- Harris, R., Saint-just, J., Asaoka, T. and Thatcher, D.: 2001, ‘The potential for natural gas to contribute to a hydrogen energy future’, Proceedings of the World Energy Council 18th Congress, Buenos Aires, World Energy Council, 21–25 October, Paper No. DS3.
- Hawaii National Institute: 2001, The 1st Workshop on the International Committee on Methane Hydrates, Final Report, Honolulu, University of Hawaii, Chapter II.
- Honda, K. and Fujishima, A.: 1972, ‘Electrochemical photolysis of water at a semiconductor electrode’, Nature 238, 37–38. CrossRef
- Ichikawa, M.: 1998, ‘Catalytic dehydroaromatization of methane with CO/CO2 towards benzene and naphthalene on bimetallic Mo/zeolite catalysts, bifunctional catalysis and dynamic mechanism’, Studies of Surface Catalysis 119, 241–246. CrossRef
- Institute of Applied Energy: 2000. Phase II for Task-1 System Analysis: World Energy Network, Report No. NEDO-WE-NET-0001/06, Tokyo, New Energy and Industrial Technology Development Organization, Chapters 3 and 4.
- International Fertilizer Development Center: 1997, ‘Worldwide Ammonia Capacity Listing by Plant’, Fertilizer Situation Report FSR-10. Alabama, ICDC Publication Center, pp. 1–10.
- Ito, T.: 1999, ‘Technologies and catalysts of hydrogen generation for fuel cells’, Journal of the Japan Institute of Energy 78(871), 911–920.
- Khaselev, O. and Turner, J. 1998, ‘A monolithic photovoltaic-photochemical device for hydrogen production via water splitting’, Science 280, 425–427. CrossRef
- Kvenvolden, A.: 1993. ‘Gas hydrates as a potential energy resource — A review of their methane content’, in G. Howell (ed.), The Future of Energy Gases: Professional Paper 1570, Reston, US Geological Survey, pp. 555–561.
- Lomax, D., James, B., Baum, G. and Thomas, C.: 1997. ‘ Detail Manufacturing Cost Estimates for PEM Fuel Cells for Light Duty Vehicles’, Directed Technologies, Inc., Arlington.
- MacDonald, T.: 1990, ‘The future of methane as an energy resource’, Annual Review of Energy 15, 53–83. CrossRef
- Matsumoto, R., Takeda, Y. and Wasada H.: 2001, ‘Exploitation of margin gas hydrates in Nankai Trough’, CD-ROM Proceedings of the AAPG National Meeting, Denver, American Association of Petroleum Geologists, 3–6 June, CD-ROM 1.
- Master, D., Root, D. and Attanasi, E.: 1991, ‘Resource constraints in petroleum production potential’, Science 253, 146–152. CrossRef
- Murase, M.: 1995, ‘R&D for world energy network’, Summary of the International Hydrogen & Clean Energy Symposium, Tokyo, Asian Technical Information Program, 6–8 February, Paper No. ATIP95-63.
- National Institute for Resources and Environment: 1996, Development of Methane Hydrate, Advisory Board Report, Tsukuba, Ministry of Economy, Trade and Industry of Japan, Chapters 4–6.
- National Petroleum Council: 1992, The Potential for Natural Gas in the United States, Washington D.C., The National Petroleum Council, Vols. I and II.
- Nordic Council of Ministers: 1986. ‘Europe’s air — Europe’s environment’, Report of the Committee for Environmental Affairs, Stockholm, the Nordic Council of Ministers, pp. 77–81.
- Office of Fossil Energy: 1999, National Methane Hydrate Multi-Year R&D Program Plan, Washington D.C., US Department of Energy, Chapter 1.
- Ohara, T., Dallimore, S. and Fercho, E.: 1999, ‘Drilling operations’, in S. Dallimore, T. Uchida and T. Collet (eds.), JAPAN/JNOC/GSCMallik2L-38 Gas Hydrate Research Well, Mackenzie Delta, Vancouver, Geological Survey of Canada, pp. 19–30.
- Ohiji, Y.: 2000, ‘The present situation and the future of alternative fuels’, Proceedings of the Alternative Fuel Technology for Automobile Symposium, Tokyo, Organizing Committee, 29–30 May, pp. 28–46.
- Ogden, J.: 2001, Review of Small Stationary Reformers for Hydrogen Production, Technical report, Princeton, Center for Energy and Environmental Studies, Chapter 3.
- Ormerod, B. (ed.): 1996, Ocean Storage of Carbon Dioxide, Report of Workshop 2 — Environmental Impact, Cheltenham, IEA Greenhouse Gas R&D Program, p. 131.
- Shimada T.: 2000, ‘Automobiles and environmental impact’, Car Technology 54(12), 16–19.
- Sloan, E.: 1997, Clathrate Hydrates of Natural Gases, New York, Marcel Dekker Inc., Chapter 2.
- Sperling, D. and Lipman, T.: 2000, International Assessment of Electric-Drive Vehicles — Policies, Markets and Technologies, Report No. KFB-2000/30, The Swedish Transport and Communications Research Board, Stockholm.
- Sumitomo Metals, 2002: Annual Report — Onward and Upward, Report No. A1-202, Sumitomo Metal Industries, Ltd., Tokyo.
- Swaminathan, A. and Sen, R.: 1997, Cost Analysis of Energy Storage for Electric Utility Applications, Report No. SAND97-0443, New Mexico, Sandia National Laboratories.
- Terasaki, T.: 1999, ‘Natural gas from unconventional sources’, in Y. Okamoto (ed.), Natural Gas, Tokyo, Japan Institute of Energy, chapter 1.
- Tomer, B., Guthrie, H. and Mroz, T.: 2001, ‘A collaborative approach to methane hydrate research and development activities’, Proceedings of the 2001 Offshore Technology Conference, Houston, OTC Program Committee, 30 April–3 May, Paper No. 13038.
- Tsuji, Y., Furunani, S. and Kanamori, K.: 1998, ‘Exploratory surveys for evaluation of methane hydrates in Nankai Trough area, offshore central Japan’, Proceedings of the International Symposium on Methane Hydrates Resources in the Near Future, Chiba, Japan National Oil Cooperation, 20–22 October, pp. 15–26.
- Uehara, H.: 1998, ‘The present status and future of ocean thermal energy conversion’, Solar Energy 16, 217–231.
- Uehara, H., Dilao, C. and Nakaoka, T.: 1988, ‘Conceptual design of ocean thermal energy conversion power plant in the Philippines’, Solar Energy 41(5), 431–444. CrossRef
- US Department of Energy: http://www.fe.doe.gov/oil_gas/methanehydrates.
- US Environmental Protection Agency: 1994, Methanol Basics, Technical report EPA 400/F/92/009, Washington D.C., US Environmental Protection Agency, Chapter 2.
- Watanabe, S.: 1999, ‘Clean and efficient fuel cell vehicles’, Journal of the Japan Institute of Energy 78 (871), 898–905.
- Yamada, K.: 1999, ‘Methane hydrate’, Valqua Review 43(10), 10–15
- Yamamoto, T., Isaka, K, Sato, H. Matsukura, Y. and Ishida, H.: 2000, ‘Gasification and smelting system using oxygen blowing for municipal waste’, ISIJ International 40(3), 260–265. CrossRef
- Zeolyst International: http://www.zeolyst.com.
- Analysis of availability and accessibility of hydrogen production: An approach to a sustainable energy system using methane hydrate resources
Environment, Development and Sustainability
Volume 6, Issue 4 , pp 453-471
- Cover Date
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- Kluwer Academic Publishers
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- alternative energy
- fuel cell
- methane hydrate
- sustainable development
- Industry Sectors
- Author Affiliations
- 1. Department of Basic Science and Environment, ESAC/Polytechnic Institute of Coimbra, 3040-316, Bencanta, Coimbra, Portugal