Computational study of shock-wave interaction with solid obstacles using immersed boundary methods

Engineering

• Volume Ratio 100%
• Vortex 100%
• Oscillatory 100%
• Vorticity 100%
• Block Matrix 100%
• Solid Obstacle 100%
• Solid-Fluid Interaction 100%
• Energy Engineering 50%
• Length Scale 50%
• Fluid Flow 50%
• Good Agreement 50%
• Late Stage 50%
• Flow Instability 50%
• Simulation Method 50%
• Flow Simulation 50%
• Mach Number 50%
• Relaxation Length 50%
• Cartesian Grid 50%

Keyphrases

• Shock 100%
• Shock Wave Interaction 100%
• Computational Study 100%
• Immersed Boundary Method 100%
• Solid Obstacle 100%
• Surface-to-volume Ratio 40%
• Block Matrix 40%
• Shock Waves 20%
• Coupling Scheme 20%
• Flow Instability 20%
• Eddies 20%
• Efficient Scheme 20%
• Simulation Method 20%
• Vorticity 20%
• High-order 20%
• Vortex 20%
• Complex Geometry 20%
• Vorticity Field 20%
• Immersed Boundary 20%
• Inviscid 20%
• Being Observed 20%
• Direct Forcing 20%
• Mach number 20%
• Total Kinetic Energy 20%
• Cylinder Array 20%
• Fluid Flow Simulation 20%
• Weighted Essentially Non-oscillatory Scheme 20%
• Relaxation Length 20%
• Shock-vortex Interaction 20%
• Cartesian Grid 20%
• Weighted Essentially Non-oscillatory 20%
• Baroclinic Production 20%
• Moving Shock Wave 20%
• Shocklets 20%
• Fluid-solid Interaction Problem 20%
• Fluid-solid Interaction 20%