A hybrid method for aeroacoustic noise prediction of wall-bounded shear flows at low Mach numbers

Keyphrases

• Acoustics 100%
• Hybrid Method 100%
• Low Mach number 100%
• Noise Prediction 100%
• Wall-bounded Shear Flow 100%
• Aeroacoustic Noise 100%
• Numerical Simulation 66%
• Near-field 66%
• Simulation Solution 66%
• Flow Noise 66%
• Momentum Equation 33%
• Splitting Method 33%
• Energy Equation 33%
• Cylinder Wall 33%
• Dipole 33%
• Low-frequency Fluctuations 33%
• Von Kármán Vortex Shedding 33%
• Circular Cylinder 33%
• Acoustic Pressure 33%
• Vorticity Transport Equation 33%
• Compressibility Effects 33%
• Far-field Acoustics 33%
• Vorticity 33%
• Viscous Stress 33%
• Viscous Diffusion 33%
• Diffusion Term 33%
• Accuracy Assessment 33%
• Tone Noise 33%
• Thermally Driven Flow 33%
• High Mach number 33%

Engineering

• Shear Flow 100%
• Hybrid Method 100%
• Low Mach Number 100%
• Computer Simulation 100%
• Vorticity 100%
• Momentum Equation 50%
• Energy Equation 50%
• Cylinder Wall 50%
• Driven Flow 50%
• Circular Cylinder 50%
• Vortex Shedding 50%
• Acoustic Pressure 50%
• Compressibility 50%
• Acoustic Far Field 50%
• Viscous Stress 50%
• Diffusion Term 50%
• Tone Noise 50%
• High Mach Number 50%

Physics

• Aeroacoustics 100%
• Mach Number 100%
• Shear Flow 100%
• Vorticity 66%
• Flow Noise 66%
• Transport Theory 33%
• Vortex Shedding 33%
• Far Field 33%
• Compressibility Effect 33%