Theoretical Modeling of Levitated Clusters of Water Droplets Stabilized by Infrared Irradiation

Keyphrases

• Theoretical Modeling 100%
• Supersaturation 100%
• Water Surface 100%
• Water Droplet 100%
• Quasi-steady 100%
• Stefan Flow 100%
• Infrared Irradiation 100%
• Droplet Energy 100%
• Airflow 50%
• Thermodynamic Properties 50%
• Result-oriented 50%
• Non-equilibrium 50%
• Numerical Solution 50%
• Mass Transfer 50%
• Water Vapor 50%
• Relative Motion 50%
• Normal Pressure 50%
• Equilibrium State 50%
• Shear Stress 50%
• Numerical Computation 50%
• Infrared Radiation 50%
• Analytical Results 50%
• Droplet Evaporation 50%
• Heat Mass Transfer 50%
• Thermal Conductivity Properties 50%
• Water Flow 50%
• Curve Fitting 50%
• Stability Condition 50%
• Evaporation-condensation 50%
• Droplet Motion 50%
• Radiant Flux 50%
• Updraft 50%
• Upward Flow 50%
• Equilibrium Droplets 50%
• Radiative Cooling 50%
• Downdraft 50%
• Droplet Radius 50%
• Droplet Drag 50%
• Transfer Flow 50%
• Radiative Heating 50%
• Heated Water 50%
• Transient Evolution 50%
• Knudsen Layer 50%
• Droplet State 50%
• Theory of Heat 50%
• Self-similarity Theory 50%
• Low Re Flow 50%
• Levitated Droplet 50%

Engineering

• Energy Engineering 100%
• Supersaturation 100%
• Stefan Flow 100%
• Transients 50%
• Thermal Conductivity 50%
• Nonequilibrium 50%
• Numerical Solution 50%
• Similarities 50%
• Analytical Result 50%
• Relative Importance 50%
• Infrared Radiation 50%
• Equilibrium State 50%
• Numerical Computation 50%
• Stability Condition 50%
• Fitting Curve 50%
• Surface Water 50%
• Relative Motion 50%
• Drag Stress 50%
• Downdraft 50%
• Heated Water 50%
• Knudsen Layer 50%

Physics

• Supersaturation 100%
• Surface Water 100%
• Thermal Conductivity 50%
• Transients 50%
• Condensation 50%
• Numerical Solution 50%
• Curve Fitting 50%
• Infrared Radiation 50%
• Vertical Air Currents 50%