In the aero-elastic analysis of wind turbines based on blade element theory, the need to include a model of the local, two-dimensional instationary aerodynamic loads, commonly referred to as dynamic stall has become obvious in the last years. In this contribution we describe an alternative choice for such a model. Its derivation is governed by the flow physics, thus enabling interpolation between different profile geometries. To facilitate aeroelastic stability and sensitivity investigations, the original model is changed into state-space form, i.e. a system of differential equations. The transformation into state-space form is validated with numerical calculations
A new comprehensive simulation tool for computation of the whole helicopter is currently being devel...
The Society for Experimental Mechanics (SEM) Substructuring Focus Group has initiated a research pro...
This paper presents an aeroservoelastic modeling approach for dynamic load alleviation in large wind...
A comprehensive computational tool for the aeroelastic analysis of horizontal axis wind turbines (H...
This paper presents the development of a computational aeroelastic tool for the analysis of performa...
"This paper deals with a computational aeroelastic tool aimed at the analysis of performance,. respo...
An aeroservoelastic model, capturing the structural response and the unsteady aerodynamics of turbin...
Robust and accurate dynamic stall modeling remains one of the most difficult tasks in wind turbine l...
Dynamic stall is phenomenon that plays a role in many applications such as helicopter or wind turbin...
Today wind turbines are assuming great importance in the generation of electrical power worldwide. D...
Offshore wind turbines take advantage of the vast energy resource in open waters but face structural...
(ABSTRACT) The objective of the present research is to investigate unsteady aerodynamic models with ...
This study numerically investigates kinematics of dynamic stall, which is a crucial matter in wind t...
The accuracy of simulating the aerodynamics and structural properties of the blades is crucial in th...
This thesis presents a state-space theory for the lift, drag, and all generalized forces of a deform...
A new comprehensive simulation tool for computation of the whole helicopter is currently being devel...
The Society for Experimental Mechanics (SEM) Substructuring Focus Group has initiated a research pro...
This paper presents an aeroservoelastic modeling approach for dynamic load alleviation in large wind...
A comprehensive computational tool for the aeroelastic analysis of horizontal axis wind turbines (H...
This paper presents the development of a computational aeroelastic tool for the analysis of performa...
"This paper deals with a computational aeroelastic tool aimed at the analysis of performance,. respo...
An aeroservoelastic model, capturing the structural response and the unsteady aerodynamics of turbin...
Robust and accurate dynamic stall modeling remains one of the most difficult tasks in wind turbine l...
Dynamic stall is phenomenon that plays a role in many applications such as helicopter or wind turbin...
Today wind turbines are assuming great importance in the generation of electrical power worldwide. D...
Offshore wind turbines take advantage of the vast energy resource in open waters but face structural...
(ABSTRACT) The objective of the present research is to investigate unsteady aerodynamic models with ...
This study numerically investigates kinematics of dynamic stall, which is a crucial matter in wind t...
The accuracy of simulating the aerodynamics and structural properties of the blades is crucial in th...
This thesis presents a state-space theory for the lift, drag, and all generalized forces of a deform...
A new comprehensive simulation tool for computation of the whole helicopter is currently being devel...
The Society for Experimental Mechanics (SEM) Substructuring Focus Group has initiated a research pro...
This paper presents an aeroservoelastic modeling approach for dynamic load alleviation in large wind...