Experimental investigation of supercritical carbon dioxide in horizontal microchannels with non-uniform heat flux boundary conditions

Engineering

• Test Section 100%
• Experimental Investigation 100%
• Supercritical Carbon Dioxide 100%
• Microchannel 100%
• Uniform Heat Flux 100%
• Boundary Condition 100%
• Critical Point 50%
• Exchanger 50%
• Heat Flux 50%
• Parallel Channel 25%
• Microscale 25%
• Fluid Flow 25%
• Reduced Pressure 25%
• Heat Transfer Fluid 25%
• Drastic Change 25%
• Experimental Parameter 25%
• Inlet Temperature 25%
• Heat Transfer Model 25%
• Macroscale 25%
• Circular Tubes 25%
• Heat Transfer Data 25%
• Hydraulic Diameter 25%
• Diffusion Bonding 25%
• Supercritical Fluid 25%
• Aspect Ratio 25%
• Mass Transport 25%
• Computer Numerical Control 25%
• Circular Channel 25%
• Heat Transfer Theory 25%

Keyphrases

• Supercritical Carbon Dioxide 100%
• Supercritical CO2 (SCO2) 100%
• Horizontal Microchannel 100%
• Downscaling 25%
• Data Analysis Methods 25%
• Thermophysical Properties 25%
• Heat Transfer 25%
• Reduced Pressure 25%
• Heat Flux 25%
• Heat Transfer Fluid 25%
• Mass Flux 25%
• Buoyancy 25%
• Single-walled 25%
• Aspect Ratio 25%
• Drastic Change 25%
• Non-uniform Heating 25%
• Parallel Channels 25%
• Experimental Parameters 25%
• Heat Transfer Model 25%
• Heat Transfer Performance 25%
• Heat Exchanger 25%
• Turbulent Heat Transfer 25%
• Flow Acceleration 25%
• Circular Tube 25%
• Average Heat Transfer Coefficient 25%
• Hydraulic Diameter 25%
• Effective Design 25%
• Diffusion Bonding 25%
• Inlet Temperature 25%
• Supercritical Carbon Dioxide(sCO2) 25%
• Thermodynamic Critical Point 25%
• Acceleration Effect 25%
• Heat Transfer Behavior 25%
• Low Heat Flux 25%
• Computer numerical Control Machining 25%
• Uniformly Heated 25%
• Heated Channel 25%
• Microchannel Heat Exchanger 25%
• Supercritical Flow 25%
• Non-circular Microchannel 25%