Capillary transfer: Numerical study of how topology affects the fluid flow rate into a planar microstructure with pseudopotential multiphase Lattice-Boltzmann method

Keyphrases

• Capillary Action 33%
• Capillary Dynamics 33%
• Capillary Flow 33%
• Capillary Performance 33%
• Capillary Processes 33%
• Capillary Transfer 100%
• Capillary Wicking 33%
• Electronics Cooling 33%
• Energy Model 33%
• Engineering Decisions 33%
• Fluid Flow Rate 100%
• Heat pipe 33%
• High Bandwidth 33%
• High Heat Flux 33%
• Lattice Boltzmann Method 33%
• Liquid Transportation 33%
• Local Flow 33%
• Mass Feeding 33%
• Mass Transfer Rate 33%
• Microstructure 100%
• Mover 33%
• Multiphase Lattice Boltzmann Method 100%
• Planar Topology 33%
• Pseudopotential 100%
• Structure Topology 33%
• Thermal Engineering 33%
• Thermal Performance 33%
• Thin Film Evaporation 33%
• Topological Factors 33%
• Transportation Demand 33%
• Two Dimensional 33%
• Two-dimensional Design 33%
• Ultrathin 33%
• Vapor Chamber 33%
• Wick 100%

Engineering

• Capillary Action 50%
• Dimensional Design 50%
• Driving Force 50%
• Fluid Flow Rate 100%
• Fundamental Problem 50%
• Heat Flux 50%
• Heat Pipes 50%
• Lattice-Boltzmann Method 100%
• Length Scale 50%
• Mass Transfer Rate 50%
• Numerical Study 100%
• Thermal Engineering 50%
• Thermal Performance 50%
• Thin Films 50%
• Two Dimensional 100%