Wake effects within a wind farm are identified as one of the main factors impacting wind farm
power production and fatigue loading on wind turbines' structural elements. An efficient …

This paper presents a new generation of fast-running physics-based models to predict the
wake of a semi-infinite wind farm, extending infinitely in the lateral direction but with finite …

Wind turbine aerodynamic interactions within wind farms lead to significant energy losses.
Optimizing the flow between turbines presents a promising solution to mitigate these losses …

Wind turbines operate in the atmospheric boundary layer (ABL), where Coriolis effects are
present. As wind turbines with larger rotor diameters are deployed, the wake structures that …

Yaw misalignment can make a wake steer, which is an effective method to increase the
power of wind farms but it also increases the fatigue load of the turbines. In this paper, the …

The dynamic yaw significantly affects the aerodynamic load distribution of wind turbines, and
the aerodynamic load is one of the main influencing factors of wind turbine structural stress …

The wake effect is one of the main factors affecting the power generation of wind farms.
Wake regulation is often used to reduce the wake interference between wind turbines …

The success of model-based closed-loop yaw control strategies relies on the accuracy of
models that are used to estimate the spatio-temporal attributes of wakes behind wind …