Study the Effect of Blade Angles on the Performance of Axial Six Blades Wind Turbine

  • Authors

    • Mishaal A AbdulKareem
    • Ammar A Hussain
    • Raid S Fahad
    https://doi.org/10.14419/ijet.v7i4.19.28075

    Received date: March 1, 2019

    Accepted date: March 1, 2019

    Published date: November 27, 2018

  • Axial wind turbine, Renewable energy, Blade angle, Wind velocity, Power coefficient.
  • Abstract

    In this paper, the performance of a six blades axial type wind turbine has been studied experimentally to estimate the wind power, the electrical generated power and-the modified power-coefficient of the wind-turbine. This study was conducted under different operating conditions assuming steady-state, incompressible and isothermal air flow through the wind-turbine. The range of operating condition was (2 to 5.6 m/s wind speed), (10% to 100% of electrical load that is applied on the terminals of the electrical generator) and (10° to 80° blades angle of the wind-turbine). A good agreement was obtained when comparing the results of the present work with those of a previously published article. The predicted results showed that increasing the wind speed and-the blades angle of the wind-turbine will increase the generated power from the wind-turbine. The maximum-value of the modified power-coefficient was (0.57) at a wind velocity value of (5.6 m/s) and at a blades angle value of (80°). It is found that it’s not recommended to operate the wind-turbine at (80°) blades angle associated with a wind speed range that is above (3.8 m/s) due to a high level of wind-turbine vibration.

  • References

    1. A.S.K. Darwish, A.A.M. Sayigh (1988 a) ‘Wind energy potential in Iraq’, Journal of Wind Engineering and Industrial Aerodynamics, 27(1–3), pp. 179–189.
    2. A.S.K. Darwish, A.A.M. Sayigh (1988 b) ‘Wind energy potential in Iraq’, Solar & Wind Technology, 5(3), pp. 215–222.
    3. Z. Abdin, M. A. Alim, M. A. Khairul and M. Mostaqur Rahman (2012) ‘Effect of Blade Pitch Angle on the Performance of a Wind Turbine’, Engineering e-Transaction (ISSN 1823-6379), 7(2), pp. 135–138.
    4. Aditya Rachman (2014) ‘Simulating the Influences of the Blade Number and the Rotation on the Annual Energy Performance of the Wind Machine’, 5(6), pp. 35–42.
    5. Aldair, A. A. abdulhameed (2014) ‘Pitch Angle Control Design of Wind Turbine Using Fuzzy-Art Network’, Journal of Engineering and Development, 18(4).
    6. Buyung Kosasih, A. T. (2012) ‘Experimental study of shrouded micro-wind turbine’, Procedia Engineering, 49, pp. 92–98. doi: 10.1016/j.proeng.2012.10.116.
    7. Kazuhiko Toshimitsu, Hironori Kikugawa, Kohei Sato, T. S. (2012) ‘Experimental Investigation of Performance of the Wind Turbine with the Flanged-Diffuser Shroud in Sinusoidally Oscillating and Fluctuating Velocity Flows’, Open Journal of Fluid Dynamics, 02(04), pp. 215–221. doi: 10.4236/ojfd.2012.224024.
    8. Medici, D. (2005) Experimental Studies of Wind Turbine Wakes - Power Optimisation and Meandering. Royal Institute of Technology.
    9. Noor M. Jasim (2010) ‘Investigating the Productive Energy and the Number of Revs of a Small Wind Turbine At a Variable Wind Speeds .’, Al-Qadisiya Journal For Engineering Sciences, 3(1), pp. 64–78.
    10. Roshen T. Ahmed (2009) ‘Design a position control of the blade pitch angle for variable speed wind turbine generators’, Eng. & Tech. Journal, 27(13).
    11. Ulan Dakeev (2013) Analysis of wind power generation with application of wind tunnel attachment. University of Northern Iowa.
    12. Wissam Hashim Khalil (2007) ‘Modeling and Performance of a Wind Turbine’, Anbar Journal for Engineering Sciences, pp. 116–130.
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  • How to Cite

    A AbdulKareem, M., A Hussain, A., & S Fahad, R. (2018). Study the Effect of Blade Angles on the Performance of Axial Six Blades Wind Turbine. International Journal of Engineering and Technology, 7(4.19), 945-949. https://doi.org/10.14419/ijet.v7i4.19.28075