Wind farm control has been a topic of research for more than two decades. It has been
identified as a core component of grand challenges in wind energy science to support …

The progression of wind turbine technology has led to wind turbines being incredibly
optimized machines often approaching their theoretical maximum production capabilities …

In wind farms, turbines are operated to maximize only their own power production. Individual
operation results in wake losses that reduce farm energy. Here we operate a wind turbine …

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 …

Analytical wind turbine wake models are widely used to predict the wake velocity deficit. In
these models, the wake growth rate is a key parameter specified mainly with empirical …

The helix approach is a new individual pitch control method to mitigate wake effects of wind
turbines. Its name is derived from the helical shape of the wake caused by a rotating radial …

Collective wind farm flow control, where wind turbines are operated in an individually
suboptimal strategy to benefit the aggregate farm, has demonstrated potential to reduce …

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 …

Abstract A coupled Large Eddy Simulation (LES) and aeroelastic code was used to evaluate
control responses and fatigue loading of a four-inline wind turbine array. Neutral and …

Wind farms experience significant power losses due to wake interactions between turbines.
Research shows that wake steering can alleviate these losses by redirecting the flow …