Advances in New and Renewable Energy >
The General Design Technology of Large-Scale Wind Turbines
Received date: 2013-11-30
Revised date: 2013-12-10
Online published: 2013-12-27
The current development of wind energy utilization is briefly discussed. The tendency and characteristics of the development of wind energy technology are analyzed. Our focus in this paper is mainly on the general design technology of large-scale flexible wind turbines. The general design technology which involves aerodynamics, aeroelasticity, structural design and other related disciplines, is a comprehensive issue and has a crucial influence on performance, reliability and working lift of wind turbines. In this paper, the aeroelastic loads calculation, aeroelastic stability and other related issues which are the main challenges of the general design of large-scale wind turbines, are systematically analyzed. In addition, the related technical issues for the further development of offshore wind turbine are also discussed. Apart from the aeroelastic analysis of flexible wind turbine sets under the united loads from wind and wave, the wave load model for the pile foundation of offshore sets should be firstly investigated for the large-scale offshore wind turbines.
Key words： general design; aeroelastic; large scale wind turbine; offshore turbine
ZHANG Xing-wei , CHEN Yan . The General Design Technology of Large-Scale Wind Turbines[J]. Advances in New and Renewable Energy, 2013 , 1(3) : 218 -223 . DOI: 10.3969/j.issn.2095-560X.2013.03.003
[1] 国家能源局. 可再生能源发展“十二五”规划发布[DB/OL]． http://www.nea.gov.cn/2012-08/08/c_131767651.htm, 2012-08-08.
[2] 中国风能协会. http://www.cwea.org.cn/hynews/display_ info.asp?cid=364, 2013-02-05.
[3] 全球风能理事会. 全球风电发展, 2011 英文报告中文缩略版.
[4] 刘德顺, 戴巨川, 胡燕平, 等. 现代大型风电机组现状与发展趋势[J]. 中国机械工程, 2013, 24(1): 124-134.
[5] 宋础, 刘汉中. 海上风力发电场开发现状及发展趋势[J]. 太阳能, 2006, (2): 26-28.
[6] 许洪华, 郭金东, 鄂春良. 世界风电技术发展趋势和我国未来风电发展探讨[J]. 电力设备, 2005, 6(10): 106-108.
[7] Holierhoek J G. Aerolasticity of Large Wind Turbines[D]. Delft: Delft University of Technology, 2008.
[8] Leishman J G. Challenges in Modelling the Unsteady Aerodynamics of Wind Turbines[J]. Wind Energy, 2002, 5(2-3): 85-132.
[9] Tran C T, Petot T. Semi-empirical model for the dynamic stall of airfoils in view of the application to the calculation of responses of a helicopter blade in forward flight[C]. 6th European Rotorcraft and Powered Lift Forum, Bristol, England, 1980.
[10] Leishman J G, Beddoes T S. A semi-empirical model for dynamic stall[J]. American Helicopter Society, 1989, 34(3): 3-17.
[11] Hansen M H, Gaunaa M, Madsen H A. A Beddoes- Leishman type dynamic stall model in state-space and indicial formulatons[R]. Technical Report Risø-R-1354 (EN), Roskilde, Risø National Laboratory, 2004: 1-41.
[12] Hansen M H. Aeroelastic instability problems for wind turbines[J]. Wind Energy, 2007, 10(6): 551-577.
[13] Politis E，Riziotis V. The importance of nonlinear effects identified by aerodynamic and aeroelastic simulations on the 5 MW reference wind turbine，Deliverable D2.1, Project UpWind, 2007.
[14] Kallesøe B S, Hansen M H. Some effects of large blade deflections on aeroelastic stability[C]. 47th AIAA Aerospace Sciences Meeting Including The New Horizons Forum and Aerospace Exposition, Orlando, Florida, 2009.
[15] Hansen M H. Improved modal dynamics of wind turbines to avoid stall-induced vibrations[J]. Wind Energy, 2003, 6(2): 179-195.
[16] Kallesøe B S. Equations of motion for a rotor blade including gravity, pitch action and rotor speed variations[J]. Wind Energy, 2007, 10(3): 209-230.
[17] Lobitz D W. Parameter sensitivities affecting the flutter speed of a MW-sized blade[J]. Solar Energy Engineering, 2005, 127(4): 538-543.
[18] Hansen M H, Thomsen K, Fuglsang P, et al. Two methods for estimating aeroelastic damping of operational wind turbine modes from experiments[J]. Wind Energy, 2006, 9(1-2): 179-191.
[19] Hodges D H, Yu W. A Rigorous Engineer-friendly Approach for Modelling Realistic, Composite Rotor Blades[J]. Wind Energy, 2007, 10(2): 179-193.
[20] Hillmer B, Borstelmann T, Schaffarczyk P A, et al. Aerodynamic and Structural Design of MultiMW Wind Turbine Blades beyond 5MW[J]. Journal of Physics: The Science of Making Torque from Wind, Conference Series 75, 2007: 012002.
[21] Meng Fanzhong, Marilena D P, Michel V T. Aeroelastic Stability Analysis of Large Scale Horizontal Axis Wind Turbines Using Reduced Order System Identication Based on Flexible Nonlinear Multi-body Dynamics[C]. 46th AIAA Aerospace Sciences Meeting and Exhibit, Reno, Nevada, 2008.
[22] Zhao X Y, Peter M, Wu J Y. A new multibody modelling methodology for wind turbine structures using a cardanic joint beam element[J]. Renewable Energy, 2012, 32(3): 532 -546.
[23] Kim D H, Kim Y H. Performance Prediction of a 5MW Wind Turbine Blade Considering Aeroelastic Effect[J]. World Academy of Science, Engineering and Technology, 2011, 81: 771-775.
[24] Chen Z Z, Tarp-Johansen N J, Jensen J J. Mechanical characteristics of some deepwater floater designs for offshore wind turbines[J]. Wind Engineering, 2006, 30(5): 417-443.
[25] 黄维平, 刘建军, 赵战华. 海上风电基础结构研究现状及发展趋[J]. 海洋工程, 2009, 27(2) : 130-134.
[26] Rubak R, Petersen J T. Monopile as part of aeroelastic wind turbine simulation code[C]. Copenhangen Offshore Wind 2005 Conference and Expedition Proceeding, Copenhagen, Denmark, 2005: 1-10.
[27] Hansen M O L, Sørensen J N, Voutsinas, et al. State of the art in wind turbine aerodynamics and aeroelasticity[J]. Progress in Aerospace Science, 2006, 42(4): 285-330.
[28] Zaaijer M B. Review of Knowledge Development for the Design of Offshore Wind Energy Technology[J]. Wind Energy, 2009, 12(5): 411-430.
[29] Passon P, Kühn M, Butterfield S, et al. OC3 Benchmark Exercise of Aeroelastic Offshore Wind Turbine Codes[J]. Journal of Physics: Conference Series 75, 2007: 012071.
[30] Jonkman J M. Dynamics of Offshore Floating Wind Turbines–Model Development and Verification[J]. Wind Energy, 2009, 12(5): 459-492.
[31] Velkamp H F, Van Der Temple J. Influence of wave modelling on the prediction of fatigue for offshore wind turbine[J]. Wind Energy, 2005, 8(1): 49-65.
[32] Zhong Z Y, Wang K H. Modeling fully nonlinear shallow-water waves and their interactions with cylindrical stru ctures[J]. Computers & Fluids, 2009, 38(5): 1018-1025.
[33] Trumars J M V. Tarp-Johansen N J, Krogh T. The effect of wave modelling on offshore wind turbine fatigue loads[C]. Copenhangen Offshore Wind 2005 Conference and Expedition Proceeding, Copenhagen, Denmark, October 26-28, 2005.
[34] Henderson A R, Zaaijer M B. Hydrodynamic loading on offshore wind turbines[C]. The Proceedings of the 14th (2004) International Offshore and Polar Engineering Conference, Toulon, France, 2004: 142-149 .
[35] Myrhaug D, Holmedal L E. Wave run-up on slender circular cylindrical foundations for offshore wind turbines in nonlinear random waves[J]. Coastal Engineering, 2010, 57(6): 567-574.
[36] Andersen T L, Frigaard P, Damsgaard M L, et al. Wave run-up on slender piles in design conditions-Model tests and design rules for Offshore wind[J]. Coastal Engineering, 2011, 58(4): 281-289.
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