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The Darrieus wind turbine for electrical power generation

Published online by Cambridge University Press:  04 July 2016

M. L. Robinson*
Affiliation:
Weapons Systems Research Laboratory, Department of Defence, Defence Research Centre Salisbury, South Australia

Extract

Wind energy has long been recognised as a potentially abundant source of clean and renewable mechanical and electrical power. History records that wind energy has been harnessed by man since about the year 2000 BC when windmills were used for energy production in Babylon and China. An ancient Persian vertical-axis windmill of about 7th century vintage is shown in Fig. 1. Windmills appeared in Europe in the 12th century and flourished until the 19th century as one of the few forms of rotary mechanical power. The Dutch windmill achieved lasting fame as the subject of paintings and etchings by the Dutch Masters including Rembrandt and van Ruisdael. Rembrandt's etching ‘The Windmill’ shows the fine detail of a 17th century windmill in Amsterdam.

The final versions of Dutch and English windmills were relatively sophisticated machines, well suited to the tasks of grinding grain and other materials, pumping water and sawing wood. Steam power came to displace wind power in the 18th century, and windmill numbers diminished rapidly during the late 19th and early 20th centuries. Nevertheless, working examples of traditional windmills can still be seen in Holland, England and on the Greek islands.

Type
Research Article
Copyright
Copyright © Royal Aeronautical Society 1981 

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References

1. Darrieus, G. J. M. Turbine having its rotating shaft transverse to the flow of current. US Patent No 1 835 018, 8th December 1931.Google Scholar
2. South, P. and Ranji, R. S. Preliminary tests of a high speed vertical axis windmill model. National Aeronautical Establish ment of the National Research Council of Canada, LTR-LA— 74, March 1971.Google Scholar
3. Warne, D. F. and Calnan, P. G. Generation of electricity from the wind. Proc. IEEE, IEEE Reviews, Vol 124, No 11R, November 1977.Google Scholar
4. Mullet, L. F. Surveying for wind power in Australia. Journal of the Institution of Engineers, Australia, March 1957.Google Scholar
5. Blackwell, B. F. and Reis, G. E. Blade shape for a troposkien type of vertical-axis wind turbine. Sandia Laboratories, Albuquerque, N. Mexico, SLA74-0154, April 1974.Google Scholar
6. Blackwell, B. F. and Reis, G. E. Some geometrical aspects of troposkiens as applied to vertical-axis wind turbines. Sandia Laboratories, Albuquerque, N. Mexico, SAND74-0177, May 1975.Google Scholar
7. Cook, W. R., Puust, T. and Robinson, M. L. Feasibility study on a low power vertical axis wind powered generator. Australian Dept. of Defence, Advanced Engineering Laboratory Technical Report AEL-0039-TR (in publication).Google Scholar
8. Moran, W. A. Giromill wind tunnel test and analysis. Vol II — Technical discussion. McDonnell Aircraft Co. Report COO/ 2617-4/2 prepared for the US Energy Research and Development Administration, October 1977.Google Scholar
9. Musgrove, P. J. and Mays, I. D. Development of the variable feometrv vertical axis windmill. Wind Energy Systems, Vol 1, fecond International Symposium, Amsterdam, October 1978..Google Scholar
10. Blackwell, B. F., Sullivan, W. H.,Reuter, R. C. and Banas, J. F. Engineering development status of the Darrieus turbine. Journalof Energy, Vol 1, No 1, January 1977.Google Scholar
11. Klimas, P. C. Darrieus wind turbine program at Sandia Laboratories. Paper presented at Wind Energy Innovative Systems Conference, Colorado Springs, May 1979.Google Scholar
12. South, P. and Watts, A. Magdalen Islands VAWT field test. Paper presented at Workshop, Operational and economic status and requirements of large scale wind systems, Monterey, California, March 1979.Google Scholar
13. Templin, R. J. Design characteristics of the 224 kW Magdalen Islands VAWT. Paper presented at Workshop, Operational and economic status and requirements of large scale wind systems, Monterey, California, March 1979.Google Scholar
14. Critzos, C. C, Heyson, H. H. and Boswinkle, R. W. Jr. Aerodynamic characteristics of NACA 0012 aerofoil section at angles of attack from 0° to 180°. NACA TN 3361, January 1955.Google Scholar
15. Shankar, P. N. On the aerodynamic performance of a class of vertical-axis windmills. Proceedings of the Royal Society of London; Series A, Vol 349,1976.Google Scholar
16. Thornblud, P. Gears for wind power plants. Wind Energy Systems, Vol 1, Second International Symposium, Amsterdam, October 1978.Google Scholar
17. Feltz, L. D. and Blackwell, B. F. An investigation of rotation-induced stresses of straight and of curved vertical-axis wind turbine blades, Sandia Laboratories, Albuquerque, N. Mexico, SAND74-0379, March 1975.Google Scholar
18. Lissaman, P. B. S. Some marketing and technical considerations of wind power. Advanced Wind Energy Systems, Workshop Proceedings, Vol 1, Stockholm, August 1974.Google Scholar
19. Reuter, R. C. Tower analysis. Proceedings of the Vertical-Axis Wind Turbine Technology Workshop, Sandia Laboratories, Albuquerque, N. Mexico, SAND76-5586, May 1976.Google Scholar
20. Chasteau, V. A. L. Operational experience with a 5m Darrieus wind turbine. 6th Australasian Hydraulics and Fluid Mechanics Conference, Adelaide, December 1977.Google Scholar
21. Grylls, W., Dale, B. and Sarre, P. E. A theoretical and experimental investigation into the variable pitch vertical axis wind turbine. Wind Energy Systems, Vol 2, Second International Symposium, Amsterdam, October 1978.Google Scholar
22. Diesendorf, M. Recent Scandinavian R and D in wind electric power. Implications for Australia. Search, Vol 10, No 5, May 1979.Google Scholar