GPU-Accelerated Numerical Study of Temperature Effects in Choked Under-expanded Supersonic Jets

Keyphrases

• Temperature Effect 100%
• Temperature Ratio 100%
• Supersonic Jet 100%
• GPU Acceleration 100%
• Under-expanded 100%
• 4th Order 66%
• Hot Jet 66%
• Mach Wave 66%
• High-resolution 33%
• Inviscid 33%
• Gradient-based 33%
• Proper Orthogonal Decomposition 33%
• Large Eddy Simulation 33%
• Amplitude Frequency 33%
• Density Field 33%
• Near-field 33%
• Three-temperature 33%
• Linear Case 33%
• Oscillation Mode 33%
• Navier-Stokes 33%
• Decomposition Analysis 33%
• Turnaround Time 33%
• OASPL 33%
• Cold Jet 33%
• Turbulent Mixing 33%
• Jet Temperature 33%
• Atmospheric Temperature 33%
• Later Generations 33%
• Frequency Oscillation 33%
• Single GPU 33%
• Radiation Phenomena 33%
• Jet Shear Layer 33%
• Performance Statistics 33%
• Viscous Flux 33%
• Nozzle Pressure Ratio 33%
• Monotonicity-preserving 33%
• Temporal Density 33%
• Jet Oscillation 33%
• Screech Frequency 33%
• Staging Behavior 33%
• Multi-GPU Parallelization 33%

Engineering

• Numerical Study 100%
• Graphics Processing Unit 100%
• Mach Wave 50%
• Experimental Measurement 25%
• Proper Orthogonal Decomposition 25%
• Large Eddy Simulation 25%
• Sound Pressure Level 25%
• Reaction Temperature 25%
• High Resolution 25%
• Shear Layer 25%
• Pressure Ratio 25%
• Nozzle Pressure 25%
• Mach Angle 25%
• Radiated Noise 25%