ANALYSIS OF THE BEHAVIOUR OF BIOFUEL-FIRED GAS TURBINE POWER PLANTS

Abstract

The utilisation of biofuels in gas turbines is a promising alternative to fossil fuels for power generation. It would lead to a significant reduction of CO2 emissions using an existing combustion technology, although considerable changes appear to be required and further technological development is necessary. The goal of this work is to conduct energy and exergy analyses of the behaviour of gas turbines fired with biogas, ethanol and synthesis gas (bio-syngas), compared with natural gas. The global energy transformation process (i.e., from biomass to electricity) also has been studied. Furthermore, the potential reduction of CO2 emissions attained by the use of biofuels has been determined, after considering the restrictions regarding biomass availability. Two different simulation tools have been used to accomplish this work. The results suggest a high interest in, and the technical viability of, the use of Biomass Integrated Gasification Combined Cycle (BioIGCC) systems for large scale power generation.

Dates

  • Submission Date2012-02-16
  • Revision Date2012-05-21
  • Acceptance Date2012-06-21

DOI Reference

10.2298/TSCI120216131E

References

  1. Gökalp, I., Lebas E., Alternative fuels for industrial gas turbines. Appl. Therm. Eng., 24 (2004), 11-12, pp. 1655-63
  2. Gadde, S., Wu, J., Gulati, A., McQuiggan, G., Koestlin, B., Prade, B., Syngas capable combustion systems development for advanced gas turbines, Proceedings, ASME Turbo Expo Power for Land, Sea and Air, Barcelona, Spain, 2006
  3. Basu, A., Gradassi, M., Sills, R., Use of dme as a gas turbine fuel Proceedings ASME Turbo Expo GT2001, New Orleans, USA, 2001
  4. Nieto, R., González, C., López, I., Jiménez, Á., Efficiency of a Standard Gas-Turbine Power Generation Cycle Running on Different Fuels. International Journal of Exergy, 9 (2011), 1, pp. 112-126
  5. Anheden, M., Analysis of Gas Turbine Systems for Sustainable Energy Conversion, Ph.D. thesis, Kungliga Tekniska Högskolan (Royal Institute of Technology), Stockholm, Sweden, 2000
  6. McMillan, R., Martin, P., Noden, R., Welch, M., Gas fuel flexibility in a dry low emissions combustion system, Report, Demag Delaval Industrial Turbomachinery Ltd., Lincoln, UK, 2006
  7. Elmegaard, B., Henriksen, U., Qvale, B., Thermodynamic analysis of supplementary-fired gas turbine cycles. Int. J. of Thermodyn., 6 (2003), 2, pp. 85-92
  8. ***, National Action Plan for Renewable Energy 2011-2020, Report, IDAE., Ministry of Industry, Tourism and Trade, Madrid, Spain, 2010
  9. Marcu, M., Population and social conditions, Report, Eurostat, 2009
  10. Mesarović, M. Sustainable energy from biomass. Thermal Science 5 (2001), 2, pp. 5-32
  11. Nussbaumer, T. Combustion and Co-combustion of Biomass: Fundamentals, Technologies, and Primary Measures for Emission Reduction. Energy and Fuels 17 (2003), 6, pp. 1510-1521
  12. Leckner, B. Co-combustion: A summary of technology. Thermal Science 11 (2007), 4, pp. 5-40
  13. IDAE. Biomass: anaerobic digester. Renewable energies: biomass energy, IDAE, Spain, 2007.
  14. Lacalle, J.M., Nieto, R., González, C., The impact of new trends in gas turbine design. A thermodynamic analysis Proceedings, ASME Cogen-Turbo Power Conference, Vienna, Austria. 1995
  15. ***, GTPRO: Win Software for Turbine Power and Cogeneration System Design, Report, Thermoflow Inc., Sudbury, MA, USA.
  16. Kotas, T.J., The Exergy Method of Thermal Plant Analysis, Butterworths Publishers, Stoneham, MA, 1985
  17. Leung, E.Y.W., A Universal Correlation for the Thermal Efficiency of Open Gas Turbine Cycle With Different Fuels, Journal of Engineering for Gas Turbines and Power 107 (1985), 3, pp. 560-565
  18. Daubert, T.E., Danner, R.P., Physical and thermodynamical properties of pure chemicals: Data compilation, Hemisphere Pub. Corp., New York, NY, USA, 1989
  19. Lee B.I., Kesler M.G., A generalized thermodynamic correlation based on three-parameter corresponding states. AIChE J., 21 (1975), 3, pp. 510-527
  20. Deublein D., Steinhauser A., Biogas from Waste and Renewable Resources: An Introduction, Wiley-VCH, Weinheim, Germany, 2008
  21. Duke J.A., Handbook of Energy Crops. Purdue, 1983, available from: www.hort.purdue. edu/newcrop/duke_energy/dukeindex.html
  22. Amon T., Optimierung der Biogaserzeugnung aus den Energiepflanzen Mais und Kleegras, Report, Universität für Bodenkultur, Wien, Austria, 2003
  23. Mueller-Langer, F., Tzimas, E., Kaltschmitt, M., Peteves, S., Techno-economic assessment of hydrogen production processes for the hydrogen economy for the short and medium term. Int. J. of Hydrog. Energy, 32 (2007), 16, pp. 3797-3810
  24. Wang, Z., Yang, J., Li, Z., Xiang Y., Syngas composition study. Front. Energy Power Eng. China, 3 (2009), 3, pp. 369-72
  25. Rubin, E.S., Chen, C., Rao, A.B., Cost and performance of fossil fuel power plants with CO2 capture and storage. Energy Policy 35 (2007), 9, pp. 4444-4454
  26. Pimentel, D., Patzek, T.W., Ethanol production using corn, switchgrass and wood; biodiesel production using soybean and sunflower. Nat. Resour. Res., 14 (2005), 1, pp. 65-76
  27. De Fraiture, C., Giordano, M., Liao, Y., Biofuels and implications for agricultural water use: blue impacts of green energy. Water Policy, 1, (2008) 1, pp. 67-81
  28. ***, Energy and environment report, Report, European Energy Agency, 2008.
  29. ***, Directive 2003/87/EC of the European Parliament and of the Council of 13 October.
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