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@inproceedings{Deskos:2019, author = {Deskos, G and Piggott, MD and Laizet, S}, pages = {721--728}, title = {Development and validation of the higher-order finite-difference wind farm simulator, winc3d}, year = {2019} }
TY - CPAPER AB - High-fidelity wind farm models typically employ Large–Eddy Simulation (LES) formulations and turbine parametrisations (e.g. actuator disc models) to resolve the turbine wakes at spatial and temporal scales so that all flow features of engineering importance are well–captured. Such features include the low frequency dynamic wake meandering, which plays a key role in the fatigue loading expe-rienced by downstream turbines clustered in arrays. By the term ‘Wind Farm Simulator’ (WFS) we refer to an integrated framework which offers these capabilities and can be used as a research tool to study wake–to–wake and turbine–to–wake interactions. In this work, we present a validation study for WInc3D, a WFS based on the powerful, sixth-order finite-difference flow solver, incompact3d. For our validation study, we use operational scenarios from the Horns Rev offshore wind farm. The comparison of the present model with existing Supervisory Control and Data Acquisition (SCADA) measurements and previous LES studies shows an overall good agreement. AU - Deskos,G AU - Piggott,MD AU - Laizet,S EP - 728 PY - 2019/// SP - 721 TI - Development and validation of the higher-order finite-difference wind farm simulator, winc3d ER -