This work describes advanced numerical aero-hydro-servo-elastic simulations of a floating offshore wind turbine using a multi-body vortex-particle based solver. The floating offshore substructure considered in this study is the spar-buoy as described in Phase IV of the Offshore Code Comparison Collaboration (OC3) project . The wind turbine blades and rotor-wake aerodynamics are modeled using the lifting-line theory and particle-mesh approaches, respectively. The wind turbine structure and foundation are modeled using a finite-element and muti-body system approach. Last, hydrodynamics are modeled using Airy wave theory. To calculate the forces acting on the structure, Morison’s equation is used for the floating spar-buoy. The developed aero-hydro-servo-elastic tool represents a more advanced approach to traditional tools used in industry based on blade-element momentum (BEM) for simulating floating offshore wind turbine performance.
|Publication status||Published - 2019|
|Event||WindEurope Offshore 2019: Our energy, our future: How offshore wind will help Europe go carbon neutral - Bella Center, Copenhagen, Denmark|
Duration: 26 Nov 2019 → 28 Nov 2019
|Conference||WindEurope Offshore 2019: Our energy, our future|
|Period||26/11/2019 → 28/11/2019|
Sessarego, M., Horcas, S. G., & Ramos-García, N. (2019). Aero-hydro-servo-elastic simulations of a floating spar-buoy wind turbine using multi-body vortex method. Poster session presented at WindEurope Offshore 2019: Our energy, our future, Copenhagen, Denmark.