Advancing Computational Hydroacoustics for Marine Propellers: Investigating the Limits of Incompressible Solvers in Far-Field Noise Prediction

Keyphrases

• Marine Propeller 100%
• Noise Prediction 100%
• Hydroacoustics 100%
• Far-field Noise 100%
• Incompressible Solver 100%
• Propeller 83%
• Duisburg Test Case 33%
• Open Water 33%
• Hybrid Solver 33%
• Pressure Oscillation 33%
• Hydrodynamic Performance 16%
• Istanbul University 16%
• Numerical Simulation 16%
• Computational Methods 16%
• Time Delay 16%
• Near-field 16%
• Ship Model 16%
• Testing Laboratory 16%
• Model-based Testing 16%
• Volume-based 16%
• Finite Volume 16%
• Incompressibility 16%
• Water Experiment 16%
• Impermeable Surfaces 16%
• Sound Pressure Level 16%
• Incompressible Flow 16%
• Hydrodynamic Pressure 16%
• Sound Propagation 16%
• Thrust Coefficient 16%
• Propeller Noise 16%
• Torque Coefficient 16%
• Distance Effect 16%
• Pressure Wave 16%
• Open Water Efficiency 16%
• Open-water Propeller 16%

Engineering

• Noise Field 100%
• Propeller 100%
• Marine Propellers 100%
• Open Water 50%
• Model Scale 33%
• Time Domain 16%
• Hydrodynamic Performance 16%
• Delay Time 16%
• Ship Models 16%
• Sound Pressure Level 16%
• Incompressible Flow 16%
• Propeller Noise 16%
• Sound Propagation 16%
• Open Water Efficiency 16%
• Ffowcs Williams and Hawkings Equation 16%
• Impermeable Surface 16%
• Computer Simulation 16%
• Elastic Wave 16%