Research on Technologies about Fuzzy Environment Adaptability Design of Large Scale Wind Turbine

Abstract:

To obtain rational environment adaptability design solution of wind turbine, a fuzzy environment adaptability design method of wind turbine based on core design platform is promoted. Firstly, the core design platform is built based on main structure of wind turbine irrelevant with environment factors. Secondly, the 1:n mapping relationship between environment factor set and environment adaptability technology set is created. Thirdly, the fuzzy relationships between environment adaptability technologies and environment factors are researched, and the relationships include dependency and contradiction. Finally, the quality function deployment (QFD) technology is used to obtain rational environment adaptability design solutions of wind turbine in the known condition of complicated environment factors. The feasibility and availability of the method above mentioned are validated by an example.

• Periodical: Applied Mechanics and Materials (Volume 722)
• Pages: 247-253
• DOI: https://doi.org/10.4028/www.scientific.net/AMM.722.247
• Online since: December 2014
• Authors: Tie Qiang Ma*, De Bin Sun, Xing Jia Yao, Shi Rong Wang
• Keywords: Core Platform, Design Decision, Environment Adaptability, Quality Function Deployment, Wind Turbine

References

[1] Dongfang Turbine Co., Ltd., Research on the Large Scale Low Temperature Tolerance Double-Fed VSCF Wind Turbine[R], Technology Evaluation Report on National Key Technology R&D Program During 11th Five Year Plan, (2012).

[2] Shenyang University of Technology, Research on the Double-Fed VSCF Wind Turbine Suitable to Land and Offshore Wind Farm[R], Technology Evaluation Report on National Key Technology R&D Program During 11th Five Year Plan, (2012).

[3] Xiangtan Electric Manufacturing Group Co., Ltd. Optimization and Industrialization on the Direct-Drive VSCF Wind Turbine[R], Technology Evaluation Report on National Key Technology R&D Program During 11th Five Year Plan, (2012).

[4] Shanghai Electric Group Co., Ltd. Development of Key Technologies on the Construction of Offshore Wind Farm[R], Technology Evaluation Report on National Key Technology R&D Program During 11th Five Year Plan, (2012).

[5] Zhan Yao, Liu Yao, Yu Guoli, Analysis of the Corrosion Environment and Corrosion Protection Technology of Wind Farm in Different Regions of China [J], Shanghai Coatings. Vol. 51(10), (2013) , pp.43-48.

[6] Chen Qi, Luo Yongshui, Liu Weijiang, Zhou Minqiang, Anti-freezing Design of Wind Turbine Generator [J], Equipment Environment Engineering, Vol. 10(5), (2013), pp.32-35, 57.

[7] Zhou Yinghua, Liu Jing, Guo Tingfu, Lightning Protection of Offshore Wind Turbine, Mechanical & Electrical Technology[J], Vol. 6, (2012), pp.77-80.

[8] Liu Haitao, Wang Dinghui, Liu Guanglin. Heat Dissipation Deployment of Offshore Wind Turbine [J], Renewable Energy Resources, Vol. 31(4), (2013), pp.71-73.

[9] Xie Shengqing. The Performances and Revolutions of Wind Turbine Suitable to Plateau Environment, Mechanical and Electrical Information, Vol. 24(306), (2011), pp.33-35.

[10] Gardner DJ. Configuration for Mass Customization [J], Agility & Global Competition, Vol. 2(2), (1998), pp.10-1.