In our recent project, we designed a sophisticated 3D model of a self-propelled buoy using SOLIDWORKS, a powerful CAD software known for its precision in modeling complex geometries. The objective was to ensure the buoy’s robustness and functionality in various marine conditions. To achieve this, we performed an extensive hydrodynamics analysis using STAR-CCM+, a leading CFD software.
The hydrodynamics analysis was comprehensive, allowing the buoy to perform all six degrees of freedom: surge, sway, heave, roll, pitch, and yaw. This approach ensured that the buoy’s response to environmental forces such as waves, currents, and wind was accurately simulated. By analyzing these motions, we could predict how the buoy would behave in real-world conditions, including its stability and resistance characteristics.
Additionally, the analysis included assessing the buoy’s drag and lift forces, vortex shedding, and potential resonance frequencies. This helped in optimizing the buoy’s shape and propulsion system for minimal resistance and maximum efficiency. The results from the hydrodynamics analysis were crucial for validating the design and ensuring that the buoy could maintain its stability, reliability, and performance in diverse and challenging maritime environments.
