DOI: https://doi.org/10.14710/ijred.2021.33195

Analysis of Influence of Tilt Angle on Variable-Speed Fixed-Pitch Floating Offshore Wind Turbines for Optimizing Power Coefficient Using Experimental and CFD Models

Engineering Faculty, Rajamangala University of Technology Thanyaburi (RMUTT), Pathum Thani 12110, Thailand

Received: 29 Sep 2020; Revised: 24 Nov 2020; Accepted: 1 Dec 2020; Available online: 4 Dec 2020; Published: 1 May 2021.
Editor(s): H. Hadiyanto
Open Access Copyright (c) 2021 The Authors. Published by Centre of Biomass and Renewable Energy (CBIORE)
Creative Commons License This work is licensed under a Creative Commons Attribution-ShareAlike 4.0 International License.

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Abstract

This study focused on optimization of the power coefficient of floating offshore wind turbines (FOWTs) to maintain their wind power performance in order to overcome problems with the tilt angle resulting from an unstable wind turbine platform, which can reduce the effective area of wind turbine energy extraction. FOWTs with a variable-speed fixed-pitch control strategy were investigated using an experimental model in a wind tunnel and a CFD simulation model for analysis and comparison, using wind speeds of 2–5.5 m/s and tilt angles of 3.5–6.1°. The results showed that average rotational speed differences of 16.4% and optimal power coefficients of 0.35–0.36 could be maintained at tip speed ratios of 7.7–9.6 during wind speeds of 3–5 m/s with tilt angles of 3.9–5.8°. The results of this study provide insights into a new concept of power coefficient optimization using variable tilt angle for small to medium fixed pitch FOWTs, to reduce the cost of pitch control systems.

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Keywords: floating offshore wind turbines; tilt angle; wind energy; power coefficient; computational fluid dynamics

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Section: Original Research Article
Language : EN
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  1. Alonzo-García, A., Gutiérrez-Torres, C.C., & Jiménez-Bernal, J.A. (2016). Computational Fluid Dynamics in Turbulent Flow Applications. Numerical Simulation, p. 1839. DOI: 10.5772/63831
  2. Argyropoulos, C.D., & Markatos, N.C. (2015). Recent Advances on the Numerical Modelling of Turbulent Flows. Applied Mathematical Modelling, 39(2), 693-732; DOI: 10.1016/j.apm.2014.07.001
  3. Autodesk Knowledge Network. (2019). Fluid Flow Definitions. https://knowledge.autodesk.com/support/cfd/learn-explore/caas/CloudHelp/cloudhelp/2014/ENU/SimCFD/files/GUID-4DAF0D6D-F1F4-4E90-A9C8-5CACB85E79BE-htm.html. Accessed on 26 April 2020
  4. Bakker, A. (2002). Lecture 10 – Turbulence Models: Applied Computational Fluid Dynamics. http://www.bakker.org/dartmouth06/engs150/10-rans.pdf. Accessed on 26 April 2020
  5. Burger, T. (2016) Pros and Cons of Floating Platforms in Marine Renewable Energy. https://pmiind.com/pros-cons-floating-platforms-marine-renewable-energy/. Accessed on 14 April 2020
  6. Cao, H. (2011). Aerodynamics Analysis of Small Horizontal Axis Wind Turbine Blades by Using 2D and 3D CFD Modelling. MSc thesis, School of Computing, Engineering and Physical Science, University of Central Lancashire, Preston, United Kingdom
  7. Clarke, S. (2018). Electricity Generation Using Small Wind Turbines for Home or Farm Use. http://www.omafra.gov.on.ca/english/engineer/facts/18-005.pdf. Accessed on 15 April 2020
  8. Costa Ros, M., & James, R. (2015). Floating Offshore Wind: Market and Technology Review. https://prod-drupal-files.storage.googleapis.com/documents/resource/public/Floating%20Offshore%20Wind%20Market%20Technology%20Review%20-%20REPORT.pdf. Accessed on 22 April 2020
  9. Eltayesh, A., Hanna, M.B., Castellani, F., Huzayyin, A.S., El-Batsh, H.M., Burlando, M., & Becchetti, M. (2019) Effect of Wind Tunnel Blockage on the Performance of a Horizontal Axis Wind Turbine with Different Blade Number. Energies, 12(10), 1988; DOI: 10.3390/en12101988
  10. Exell, R. H. B. (1985). The Wind Energy Potential of Thailand. Solar Energy, 35(1), 3-13; DOI: https://doi.org/10.1016/0038-092X(85)90031-3
  11. Gumula, S., Piaskowska–Silarska, M., Pytel, K., Noga, H., & Kulinowski, W. (2017). Evaluation of the Impact of Adjusting the Angle of the Axis of a Wind Turbine Rotor Relative to the Flow of Air Stream on Operating Parameters of a Wind Turbine Model. E3S Web of Conferences, 14, 10-20; DOI: https://doi.org/10.1051/e3sconf/20171401016
  12. International Renewable Energy Agency (IRENA). (2016). Floating Foundations: A Game Changer for Offshore Wind Power. https://www.irena.org/-/media/Files/IRENA/Agency/Publication/2016/IRENA_Offshore_Wind_Floating_Foundations_2016.pdf. Accessed on 17 April 2020
  13. International Renewable Energy Agency. (2019). Renewable Energy Statistics 2019. https://www.irena.org/-/media/Files/IRENA/Agency/Publication/2019/Jul/IRENA_Renewable_energy_statistics_2019.pdf. Accessed 12 April 2020
  14. Jaber, S. (2013). Environmental Impacts of Wind Energy. Journal of Clean Energy Technologies, 1(3), 251-254; DOI: 10.7763/JOCET.2013.V1.57
  15. Jabir, M., Illias, H.A., Raza, S., & Mokhlis, H. (2017). Intermittent Smoothing Approaches for Wind Power Output: A Review. Energies, 10(10), 1572; DOI: https://doi.org/10.3390/en10101572
  16. Jiawei, C., Changyun, W., & Yongduan, S. (2014). Power Control Strategy for Variable-Speed Fixed-Pitch Wind Turbines. Proceedings of 13th International Conference on Control, Automation, Robotics & Vision, 559-564;
  17. DOI: 10.1109/ICARCV.2014.7064365
  18. Kondili, E., & Kaldellis, J.K. (2012). Environmental-Social Benefits/Impacts of Wind Power. Comprehensive Renewable Energy, 2, 503-539; DOI: 10.1016/B978-0-08-087872-0.00219-5
  19. Kongkapisuth, K., Roynarin, W., & Intholo, D. (2017). Study of Building Effects on Small HAWTs Performance in Building-Obstructed Wind Flow Area by Using a CFD k–ϵ Turbulence Model Validated with Site Measurement. International Energy Journal, 17(4), 193-210
  20. Lehr, J.H., Keeley, J.W., Kingery, T.B. (Eds.) (2016). Alternative Energy and Shale Gas Encyclopedia. John Wiley & Sons, New Jersey, USA
  21. Mahmoud, M.S., & Xia, Y. (2012). Applied Control System Design. Springer-Verlay London Limited, London, United Kingdom
  22. Manwell, J.F., McGowan, J.G., & Rogers, A.L. (2009). Wind Energy Explained, 2nd edn. John Wiley & Sons Ltd., West Sussex, United Kingdom
  23. Munson, B.R., Young, D.F., Okiishi, T.H., & Huebsch, W.W. (2009). Fundamental of Fluid Mechanics, 6th edn. John Wiley & Sons, Inc, New Jersey, USA
  24. NI. (2019). Wind Turbine Control Methods. https://www.ni.com/en-th/innovations/white-papers/08/wind-turbine-control-methods.html. Accessed on 24 April 2020
  25. Ponta, F. L., Otero, A.D., Lago, L.I., & Rajan, A. (2016). Effects of Rotor Deformation in Wind Turbine Performance: The Dynamic Rotor Deformation Blade Element Momentum Model (DRD–BEM). Renewable Energy, 92, 157-170; DOI: 10.1016/j.renene.2016.01.098
  26. Poradowski, W. (2013). Lecture 7: Turbulence Modeling Introduction to ANSYS Fluent. https://www.academia.edu/36090206/Lecture_7_Turbulence_Modeling_Introduction_to_ANSYS_Fluent. Accessed on 26 April 2020
  27. Rao, K.R. (2019). Wind Energy for Power Generation: Meeting the Challenge of Practical Implementation. Springer Nature, Cham, Switzerland
  28. Rashid, M.H. (2015) Alternative Energy in Power Electronics. Butterworth-Heinemann, Massachusetts, USA
  29. REN21. Renewables 2018 Global Status Report. https://www.ren21.net/wp-content/uploads/2019/08/Full-Report-2018.pdf. Accessed on 12 April 2020
  30. REN21. Renewables 2019 Global Status Report. https://www.ren21.net/wp-content/uploads/2019/05/gsr_2019_full_report_en.pdf. Accessed on 12 April 2020
  31. Rivkin, D.A., Anderson, L.D., & Silk, L. (2013). Wind Turbine Control Systems. Jones and Bartlett Learning, Massachusetts, USA
  32. Roynarin, W., Wisatesajja, W., & Aguila, G. (2020). The Effect of the Number of Blades on the Characteristics of Compressed Air Wind Turbines Using R1235 Airfoil Blade Profile. Proceeding of the 11th International Conference on Mechanical Engineering
  33. Roynarin, W. (2016). Development of 100 kW Small Wind Machine for the Floating Applications to Support the Island Energy Demand. Proceedings of the 4th International Conference on Wind Turbine and Renewable Energy
  34. Simscale. (2020). K-epsilon. https://www.simscale.com/docs/simulation-setup/global-settings/k-epsilon/. Accessed on 26 April 2020
  35. SNC – Lavalin. (2018). Offshore Wind Handbook. https://www.snclavalin.com/~/media/Files/S/SNC-Lavalin/documents/publications/o-g-offshore-wind-brochure_en.pdf. accessed on 14 April 2020
  36. Society for Underwater Technology. (2018). South West–Offshore Floating Wind–Design and Installation. https://www.sut.org/event/south-west-offshore-floating-wind-design-and-installation/. Accessed on 17 April 2020
  37. Sodja, J. (2007). Turbulence Models in CFD. Seminar, University of Ljubljana, Slovenia
  38. Taboada, J.V. (2015). Comparative analysis review on floating offshore wind foundations (FOWF). Proceedings of 54th Naval Engineering and Maritime Industry Congress
  39. Tey, W.Y., Asako, Y., Sidik, N.A.C., & Rui-Zher, G. (2017). Governing Equations in Computational Fluid Dynamics: Derivations and a Recent Review. Progress in Energy and Environment, 1, 1-19
  40. Tong, W. (2010). Fundamentals of Wind Energy. WIT Transactions on State of the Art in Science and Engineering, Volume 44. WIT Press, Southampton, United Kingdom, p. 3-48
  41. Tu, J., Yeoh, G.H., & Liu, C. (2018). Computational Fluid Dynamics, 3rd edn. Elsevier Ltd., Amsterdam, Netherlands
  42. U.S. Department of Energy. Wind Energy Benefits 2015. https://www.nrel.gov/docs/fy15osti/62823.pdf. Accessed on 14 April 2020
  43. Waewsak, J., Landry, M., & Gagnon, Y. (2015). Offshore Wind Power Potential of the Gulf of Thailand. Renewable Energy, 81, 609-626; DOI: 10.1016/j.renene.2015.03.069

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