Abstract
The primary goal of the work is to improve accuracy of hydrodynamic loads acting on the lifting surface of the kite turbine due to complex air-water-lifting body interaction in a low-order numerical model using high-fidelity numerical input. The result of this study will help the Participant better design control algorithms for the kite turbine so that the turbine can harvest more energy while maintaining stability of the platform as well as its reliability. The use of hydrodynamic coefficients/load components from computational fluid dynamic simulation will inform better inputs for a medium-fidelity dynamic model (specifically an OrcaFlex model) which is intended for use in rapid design iterations in the design process.
| Original language | American English |
|---|---|
| Number of pages | 14 |
| DOIs | |
| State | Published - 2026 |
NLR Publication Number
- NLR/TP-5700-100873
Keywords
- air-water ventilation
- angle of attack
- Computational Fluid Dynamics (CFD)
- CRADA
- dynamic stall
- hydrodynamic loads
- hydrokinetic turbine
- kite turbine
- lift and drag coefficients
- OrcaFlex model
- overset grid approach
- spatial discretization
- two-phase simulation
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