Effect of the scale resolution on the two phase coupling characteristics of high speed evaporating sprays using LES / Eulerian-Lagrangian methodologies

Keyphrases

• Ambient Gas 25%
• Breakup Model 25%
• Computational Fluid Dynamics Modeling 25%
• Continuous Phase 25%
• Coupling Characteristics 100%
• Dispersed Phase 25%
• Elevated Pressure 25%
• Elevated Temperature Condition 25%
• Eulerian-Lagrangian Approach 25%
• Eulerian-Lagrangian Method 100%
• Evaporating Spray 100%
• Grid Size 25%
• High-speed Liquid Jet 25%
• Large Eddy Simulation 100%
• Large-scale Application 25%
• Mesh Dependence 25%
• Mesh Refinement 25%
• Mesh Resolution 50%
• Mesh Structure 25%
• Model Coefficients 25%
• Multiphase Coupling 25%
• Multiphase Flow 50%
• Numerical Accuracy 25%
• Numerics 25%
• Observed Trends 25%
• OpenFOAM 25%
• Pressure Condition 25%
• Resolution Requirements 25%
• Reynolds-averaged Navier-Stokes 25%
• Scale Mixing 25%
• Scale Resolution 100%
• Simulation Prediction 25%
• Subgrid-scale Model 25%
• Trial-and-error 25%
• Two-phase Interaction 100%
• Vapor-liquid-solid 25%

Engineering

• Computational Fluid Dynamics 50%
• Elevated Pressure 50%
• Elevated Temperature 50%
• Flow Characteristics 50%
• Lagrangian Approach 50%
• Liquid Jet 50%
• Mesh Refinement 50%
• Model Coefficient 50%
• Multiphase Flow 100%
• Multiscale 50%
• Numerical Accuracy 50%
• Reynolds-Averaged Navier-Stokes 50%
• Scale Model 50%
• Scale Range 50%
• Simulation Result 50%