A computational and experimental analysis of a hybrid parallel/counter flow double pass solar air heater

Keyphrases

• Actual Conditions 33%
• ANSYS Fluent 33%
• ASHRAE 33%
• C Model 33%
• CFD Simulation 33%
• Conduction Model 33%
• Contour Plots 33%
• Convection Coefficient 33%
• Counterflow 100%
• Double Pass Solar Air Heater 100%
• External Face 33%
• External Insulation 33%
• External Wind 33%
• Fair-weather Conditions 33%
• Finite Volume Method 33%
• Flow Features 33%
• Hybrid Parallelization 100%
• Hybrid Solar System 33%
• K-type Thermocouple 33%
• Mesh Application 33%
• Mesh Refinement 33%
• Parallel Counter 100%
• Parallel Flow 33%
• Ray-tracing Algorithm 33%
• Reynolds Stress Model 33%
• Solar Air Heater 100%
• Solar Load Model 33%
• Solar Radiation 33%
• Temperature Contour 33%
• Temperature Distribution 33%
• Temperature Prediction 33%
• Temperature Value 33%
• Thermal Conductivity 33%
• Thermal Efficiency 33%
• Venturi Flowmeter 33%
• Wind Speed Estimation 33%

Physics

• Charge Flow Device 50%
• Computational Fluid Dynamics 50%
• Counterflow 100%
• Flowmeter 50%
• Parallel Flow 50%
• Solar Radiation 50%
• Temperature Distribution 50%
• Theoretical Model 50%
• Thermal Conductivity 50%
• Thermocouple 50%
• Thermodynamic Efficiency 50%
• Wind Velocity 50%

Engineering

• Computational Fluid Dynamics 25%
• Contour Plot 25%
• Convection Coefficient 25%
• Counterflow 100%
• Experimental Observation 25%
• Experimental Result 25%
• External Convection 25%
• Finite Volume Method 25%
• Flowmeter 25%
• Load Model 25%
• Mesh Refinement 25%
• Parallel Flow 25%
• Reynolds Stress Model 25%
• Solar Air Heater 100%
• Solar Radiation 25%
• Temperature Distribution 25%
• Thermal Conductivity 25%
• Thermocouple 25%
• Thermodynamic Efficiency 25%