Research and Development of Next-generation Floating Wind Turbine System


Takeshi Ishihara
Graduate School of Engineering
Department of Civil Engineering Professor
This research and development project aims to develop a safe, reliable and economical floating offshore wind turbine system, making full use of deep water areas surrounding Japan. The targets are set as follows:
- Establish design methodology for a floating offshore wind turbine system in view of sever environmental conditions, such as typhoon, earthquake and tsunami
- Develop operation and maintenance methodology by using wind and wave forecast data
- Develop a coupled analysis model of wind turbine, floater and mooring
- Conduct economical evaluation of an offshore wind energy system, factoring in its uncertainty
The Japanese design method for wind turbines, which can withstand earthquakes and typhoons, contributes to energy infrastructure export. In addition, research and development activity of edged wind energy technology helps promote the development of human resources.
- Establish design methodology for a floating offshore wind turbine system in view of sever environmental conditions, such as typhoon, earthquake and tsunami
- Develop operation and maintenance methodology by using wind and wave forecast data
- Develop a coupled analysis model of wind turbine, floater and mooring
- Conduct economical evaluation of an offshore wind energy system, factoring in its uncertainty
The Japanese design method for wind turbines, which can withstand earthquakes and typhoons, contributes to energy infrastructure export. In addition, research and development activity of edged wind energy technology helps promote the development of human resources.
Related links
Research collaborators
- ClassNK
- Hitachi, Ltd.
- Hitachi, Ltd.
Related publications
- T ISHIHARA, A YAMAGUCHI: Prediction of the extreme wind speed in the mixed climate region by using Monte Carlo simulation and Measure-Correlate-Predict method, J. Wind Energy, 18(1), pp.171-186, 2015.
- S Zhang, T Ishihara: Effects of multidirectional sea states and flexible foundation on dynamic response of floating offshore wind turbine system, Proc. of First International Symposium on Flutter and its Application, pp.729-738,2016
- A Yamaguchi and T Ishihara: A new motion compensation algorithm of floating Lidar system for the assessment of turbulence intensity, Journal of Physics: Conference Series 753(7), pp.1-8, 2016.
- G Qian, T Ishihara£ºA numerical study of wind turbine wake by Large Eddy Simulation and Proposal for a new analytical wake model, Offshore Wind Energy 2017, 2017. (Poster).
- S Zhang, T Ishihara: Effects of multidirectional sea states and flexible foundation on dynamic response of floating offshore wind turbine system, Proc. of First International Symposium on Flutter and its Application, pp.729-738,2016
- A Yamaguchi and T Ishihara: A new motion compensation algorithm of floating Lidar system for the assessment of turbulence intensity, Journal of Physics: Conference Series 753(7), pp.1-8, 2016.
- G Qian, T Ishihara£ºA numerical study of wind turbine wake by Large Eddy Simulation and Proposal for a new analytical wake model, Offshore Wind Energy 2017, 2017. (Poster).
Related patents
- Japanese Patent number 6130207 (2017/4/21)
- Japanese Patent number 5838439 (2015/11/20)
- Japanese Patent number 5670128 (2014/12/26)
- Japanese Patent number 5565803 (2014/6/27)
- Japanese Patent number 5838439 (2015/11/20)
- Japanese Patent number 5670128 (2014/12/26)
- Japanese Patent number 5565803 (2014/6/27)
Contact
- Takeshi Ishihara
- Tel: +81-3-5841-1145
- Email: ishihara[at]bridge.t.u-tokyo.ac.jp
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