Turbine Response
Our ambition is to develop precise response predictions for the next generation of wind turbines. This covers activities around modelling, implementing and validating all relevant aspects the overall response of on- and off-shore wind turbines.
Our core scientific expertise is turbine response, aero-elasticity, control and the process of validating turbine response models. Additionally, we assure that other relevant models, for example those related to inflow, wakes, and hydrodynamics, are covered with the right balance between accuracy and computational speed that is specific for time domain response modelling work flow. The RSP section develops HAWC2, HAWCStab2, the DTU Wind Energy Controller and a suite of related software models and tools that are relevant for both our research projects and our commercial users. The Development of the response models and their software implementation is often executed in close collaboration with colleagues form other sections across the department. Our application studies involve load analysis of wind turbines (both on- and off-shore, bottom fixed and floating, standalone and in a wind farm), aero-elastic stability, controller design and the validation against measurements of our models.
- Response
- Aero-elasticity
- Control
- Validation
- Multi-fidelity, multi-physics dynamic response modelling
- Model validation and its uncertainty quantification
- Control of wind turbines and wind farms
- Hydro-aero-servo-elastic stability
- Engineering inflow and wake modelling
- Multi-body modelling, reduced-order models and dynamic analysis
Research area & applications
- Dynamic load analysis of reference turbines and new concepts
- Technology and environmental impact assessment on overall turbine response
- Support and development of HAWC2 and HAWCStab2
- Development of the DTU Wind Energy Controller
- Controller design for performance and load management
- Development of the DYNAMIKS Software framework
- Software development infrastructure