Experimental investigation of optimum thermal performance and pressure drop of water-based Al₂O₃, TiO₂ and ZnO nanofluids flowing inside a circular microchannel

Keyphrases

• Performance Drop 100%
• Pressure Drop 100%
• Thermal Performance 100%
• Water-based 100%
• TiO2-Al2O3 100%
• Al2O3 Nanofluid 100%
• Circular Microchannel 100%
• Thermal Pressure 100%
• ZnO Nanofluid 100%
• TiO2 Nanofluid 100%
• Al2O3-ZnO 100%
• Nanofluid 75%
• Aluminum Oxide 25%
• Deionized Water 25%
• Stainless Steel 25%
• Viscosity 25%
• Rutile 25%
• Thermal Conductivity 25%
• Surface Temperature 25%
• Nanoparticles 25%
• Nusselt number 25%
• Friction Factor 25%
• Heat Transfer Enhancement 25%
• Heat Transfer Rate 25%
• Constant Surface Temperature 25%
• Inlet Temperature 25%
• Base Fluid 25%
• Temperature Conditions 25%
• Pressure Drop Characteristics 25%
• Volume Concentration 25%
• Taguchi Approach 25%
• Volume Flow Rate 25%
• Water-based Nanofluid 25%
• Drop Factor 25%

Engineering

• Experimental Investigation 100%
• Pressure Drop 100%
• Microchannel 100%
• Thermal Performance 100%
• Nanofluid 100%
• Flow Rate 16%
• Fluid Viscosity 16%
• Nanoparticle 16%
• Thermal Conductivity 16%
• Nusselt Number 16%
• Optimum Condition 16%
• Heat Transfer Rate 16%
• Inlet Temperature 16%
• Base Fluid 16%
• Temperature Condition 16%
• Heat Transfer Enhancement 16%
• Flow Velocity 16%
• Friction Factor 16%

Chemical Engineering

• Titanium Dioxide 100%
• Deionized Water 50%
• Thermal Conductivity 50%
• Polyether Ether Ketones 50%
• Nanoparticle 50%
• Nusselt Number 50%