The intentional yaw misalignment of leading, upwind turbines in a wind farm, termed wake
steering, has demonstrated potential as a collective control approach for wind farm power …

Wake redirection is a wind farm control strategy that aims at increasing the overall power
yield of a wind farm. It involves intentional misalignment of the rotors of upstream wind …

The rotor area of a wind turbine must be perfectly perpendicular to the wind to deliver the
most efficient performance as a single unit (ie, yaw angle γ= 0°). When the rotor is …

The aerodynamic interactions of wind turbines within a wind farm cause major energy
losses. Yaw control is a promising active strategy to tackle this issue in real time during the …

To make wind energy cost competitive with traditional resources, wind turbines are
commonly placed in groups. Aerodynamic interaction between the turbines causes sub …

In this experimental wind tunnel study the effects of intentional yaw misalignment on the
power production and loads of a downstream turbine are investigated for full and partial …

A comprehensive understanding of the wake development of wind turbines is essential for
improving the power yield of wind farms and for reducing the structural loading of the …

Wind turbines are designed to align themselves with the incoming wind direction. However,
turbines often experience unintentional yaw misalignment, which can significantly reduce …

An intentional yaw misalignment of wind turbines is currently discussed as one possibility to
increase the overall energy yield of wind farms. The idea behind this control is to decrease …

Vertical wind shear is one of the dominating causes of load variations on the blades of a
horizontal axis wind turbine. To alleviate the varying loads, wind turbine control systems …