High-order resolution Eulerian-Lagrangian simulations of particle dispersion in the accelerated flow behind a moving shock

Keyphrases

• High-order 100%
• Moving Shock Wave 100%
• Accelerating Flow 100%
• Particle Dispersion 100%
• Lagrangian Simulation 100%
• Shock 66%
• Particle Cloud 66%
• Sharp Corner 66%
• Two Dimensional 33%
• Computational Study 33%
• Shear Layer 33%
• Vortex 33%
• Sharp Front 33%
• Weighted Essentially Non-oscillatory 33%
• Euler Equations 33%
• Eulerian-Lagrangian Method 33%
• Time Integration Schemes 33%
• WENO-Z 33%
• Lagrangian Frame of Reference 33%
• Gas Dynamics 33%
• High-order Time Integration 33%
• Flow Development 33%
• Particle-laden Flow 33%
• Circular Shape 33%
• Bronze Particle 33%
• Rectangular Shape 33%
• Reflected Shock Wave 33%
• Triangular Shape 33%
• Normal Shock 33%
• Separated Shear Layer 33%
• Cloud Shape 33%
• Particle Volume Concentration 33%

Engineering

• Shear Layer 100%
• Sharp Corner 100%
• Two Dimensional 50%
• Lagrangian Method 50%
• Vortex 50%
• Individual Particle 50%
• Euler Equation 50%
• Gas Dynamics 50%
• Reflected Shock 50%
• Separated Flow 50%
• Stream Direction 50%
• Particle Volume 50%

Earth and Planetary Sciences

• Shear Layer 100%
• Particle Dispersion 100%
• Laminar Boundary Layer 50%
• Gas Dynamics 50%