Heat transfer and hydrodynamic properties using different metal-oxide nanostructures in horizontal concentric annular tube: An optimization study

Engineering

• Aspect Ratio 100%
• Hydrodynamics 100%
• Heat Flux 100%
• Platelet 100%
• Nanomaterial 50%
• Numerical Study 50%
• Turbulent Flow 50%
• Field Emission Scanning Electron Microscope 50%
• Forced Convection 50%
• Nanosphere 50%
• Flow Range 50%
• Concentric Annulus 50%
• Heat Transfer Enhancement 50%
• Cylinder Rotation 50%

Keyphrases

• Hydrodynamic Properties 100%
• Metal Oxide Nanostructures 100%
• Annular Tube 100%
• CuO-ZnO-Al2O3 66%
• Heat Flux Ratio 66%
• Nanocylinder 33%
• Maximum Heat Transfer 33%
• Nanoshapes 33%
• Cylindrical Blades 33%
• Horizontal Annulus 33%
• Forced Convection 33%
• Heat Transfer Improvement 33%
• Flow Range 33%
• Inner Wall 33%
• Cylinder Rotation 33%
• High-temperature Heat Transfer 33%
• Inner Cylinder 33%
• Heat Transfer Enhancement 33%
• Wall Rotation 33%

Chemical Engineering

• Heat Flux 100%
• Nanosphere 50%
• Forced Convection 50%