Investigating the effect of acoustic flow control on the turbines' performance in low reynolds number conditions: An experimental study

Keyphrases

• Flow Control 100%
• Low Reynolds number 100%
• Turbine Performance 100%
• Acoustic Flows 100%
• Wall Modes 100%
• Flow Separation 66%
• Velocity Measurement 66%
• Lift Enhancement 66%
• High-speed Turbomachinery 66%
• Control Strategy 33%
• Excitation Amplitude 33%
• Excitation Frequency 33%
• Acoustics 33%
• Physical Mechanism 33%
• Flow Field 33%
• Reynolds number 33%
• Pressure Distribution 33%
• Increased Demand 33%
• Dominant Cause 33%
• Transient Behavior 33%
• Vorticity 33%
• Square Root 33%
• High Flow 33%
• Massively Separated Flows 33%
• Attached Flow 33%
• Shear Layer 33%
• Momentum Coefficient 33%
• Separation Control 33%
• Turbine Blade 33%
• Actuation Methods 33%
• Acoustic Control 33%
• Acoustic Excitation 33%
• Flow Control Technique 33%
• Separation Point 33%
• Field Velocity 33%
• Flow Control Mechanism 33%
• Strouhal 33%
• Low Reynolds 33%
• Flow Turning 33%
• Off-design Condition 33%
• Separation Dynamics 33%
• Acoustic Actuation 33%
• Spatio-temporal Correlation Analysis 33%
• Low Reynolds Airfoil 33%

Engineering

• Flow Separation 100%
• Turbomachinery 100%
• Actuation 100%
• Control System 50%
• Control Strategy 50%
• Temporal Correlation 50%
• Transients 50%
• Excitation Frequency 50%
• Velocity Field 50%
• Reynolds' Number 50%
• Separation Control 50%
• Square Root 50%
• Attached Flow 50%
• Momentum Coefficient 50%
• Blade Turbine 50%
• Design Condition 50%
• Increasing Demand 50%
• Separation Point 50%
• Airfoil 50%
• Shear Layer 50%
• Separated Flow 50%
• Flow Distribution 50%
• Pressure Distribution 50%
• Vorticity 50%