Key points are not available for this paper at this time.
In ocean engineering, one of the most challenging phenomena to replicate is the interaction between waves and a moored floating body. Accurately evaluating such systems is essential for minimizing uncertainties, mitigating risks, and advancing technologies like wave energy converters. For this purpose, this study aims to develop a high-fidelity numerical model capable of reducing reliance on costly experimental campaigns during the device design phases. The model integrates a fluid dynamics module based on the Navier–Stokes equations, implemented in Star CCm+, with a mooring model utilizing a mass–spring–damper system, specifically MoorDyn. The primary objective is to introduce this coupled approach and demonstrate its efficacy through validation against experimental data from two distinct wave energy converters: ISWEC and PeWEC. The validation process encompasses comprehensive comparisons between simulated and observed kinematic behavior, mooring tensions, and crucially, pressure loads. Results indicate that the model is able to faithfully predict the complex phenomena involving a moored floating body, affirming the accuracy and reliability of the proposed coupling methodology. The coupling developed is available online link , where a simplified case study is present to show how to compile the library and add it in the numerical model. • Novel coupling of Star CCm+ and MoorDyn, available online. • High-fidelity model for a moored floating body validated with experimental data. • Validation is performed in regular wave on two distinct wave energy converters. • The model accurately predicts kinematics, mooring tensions, pressure fields of the floater. • CFD models offer valuable input in design phases, reducing experimental costs.
Dell’Edera et al. (Thu,) studied this question.