Hybrid Model Representation of a TLP Including Flexible Topsides in Non-Linear Regular Waves
AbstractThe rising demand for renewable energy solutions is forcing the established industries to expand and continue evolving. For the wind energy sector, the vast resources in deep sea locations have encouraged research towards the installation of turbines in deeper waters. One of the most promising technologies able to solve this challenge is the floating wind turbine foundation. For the ultimate limit state, where higher order wave loads have a significant influence, a design tool that couples non-linear excitations with structural dynamics is required. To properly describe the behavior of such a structure, a numerical model is proposed and validated by physical test results. The model is applied to a case study of a tension leg platform with a flexible topside mimicking the tower and a lumped mass mimicking the rotor-nacelle assembly. The model is additionally compared to current commercial software, where the need for the coupled higher order dynamics proposed in this paper becomes evident. View Full-Text
Share & Cite This Article
Wehmeyer, C.; Ferri, F.; Andersen, M.T.; Pedersen, R.R. Hybrid Model Representation of a TLP Including Flexible Topsides in Non-Linear Regular Waves. Energies 2014, 7, 5047-5064.
Wehmeyer C, Ferri F, Andersen MT, Pedersen RR. Hybrid Model Representation of a TLP Including Flexible Topsides in Non-Linear Regular Waves. Energies. 2014; 7(8):5047-5064.Chicago/Turabian Style
Wehmeyer, Christof; Ferri, Francesco; Andersen, Morten T.; Pedersen, Ronnie R. 2014. "Hybrid Model Representation of a TLP Including Flexible Topsides in Non-Linear Regular Waves." Energies 7, no. 8: 5047-5064.