Large eddy simulations (LES) of wind farms have the capability to provide valuable and
detailed information about the dynamics of wind turbine wakes. For this reason, their use …

Wind turbine parameterization models, which are often employed to avoid the computational
cost of resolving the blade aerodynamics, are critical for the capability of large-eddy …

The actuator line technique was introduced as a numerical tool to be employed in
combination with large eddy simulations to enable the study of wakes and wake interaction …

Fast and effective numerical models describing the effect of platform motion on the
performance of floating offshore wind turbines (FOWTs) are fundamental to assess energy …

Large eddy simulations (LES) of the flow past a wind turbine with and without tower and
nacelle have been performed at 2 tip speed ratios (TSR,), λ= 3 and 6, where the latter …

The actuator line model (ALM) is a commonly used method to represent lifting surfaces such
as wind turbine blades within large‐eddy simulations (LES). In the ALM, the lift and drag …

Lifting line theory describes the cumulative effect of shed vorticity from finite span lifting
surfaces. In this work, the theory is reformulated to improve the accuracy of the actuator line …

When dealing with multirotor devices such as quadcopters or wind farms, the cost of blade-
resolved large-eddy simulation (LES) becomes prohibitive. Combining LES with a family of …

To bridge the gap between high and low fidelity numerical modeling tools for vertical-axis (or
cross-flow) turbines (VATs or CFTs), an actuator line model (ALM) was developed and …

The relevant size of state-of-the-art wind turbines suggests a significant Fluid-Structure
Interaction. Given the difficulties to measure the phenomena occurring, researchers …