| Article ID | Journal | Published Year | Pages | File Type |
|---|---|---|---|---|
| 292856 | Journal of Wind Engineering and Industrial Aerodynamics | 2012 | 8 Pages |
This study investigates the performance and aeroelastic characteristics of wind turbine blades based on flexible multibody dynamics, a new aerodynamic model, and the fluid–structure interaction approach. A new aerodynamic model is proposed based on modified strip theory (MST). MST was established for flapping wing aerodynamic models and considers a high relative angle of attack and dynamic stall effects. A simulated wind turbine blade was modeled using multibody dynamics software (MSC.ADAMS), where the flexible parts can be included by importing a finite element model built in finite element analysis software (ANSYS). The aeroelastic responses of the blade were obtained by coupling these aerodynamic and structural models. The proposed aeroelastic analysis method was validated using the predicted performance of the NREL 5MW model reported in the literature.
► We present a new aeroelastic analysis method for wind turbine blades. ► We use a flexible multibody dynamics and a modified strip theory. ► The force and blade deflection analysis of the NREL 5MW were performed.
