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Optimization of heat transfer performance of CuO/H<sub>2</sub>O nanofluid in Bessel‐like converging pipe using a two‐phase mixture model

Olatomide Gbenga Fadodun, Adenike Olatinwo, Adebimpe Amos Amosun, S.F. Olukotun, Adefope Adeyanju Owojori, Michael T. Ojo

2022Heat Transfer10 citationsDOI

Abstract

Abstract This study investigates turbulent heat transfer performance (HTP) and entropy production rate (EPR) of CuO/H 2 O nanofluid flowing through Bessel‐like converging pipes. The effects of Reynold's number , nanoparticle volume ratio , and convergence index on the hydrodynamic, HTP, and EPR were examined. The results show that an increase in the convergence index enhances pressure drop, Nusselt number, and viscous EPR. However, the opposite is the case for the thermal EPR. Furthermore, the multiobjective optimization of pressure drop, Nusselt number, and EPR show that both Nusselt number and pressure drop attained the optimum value simultaneously.

Topics & Concepts

NanofluidNusselt numberPressure dropThermodynamicsHeat transferMaterials scienceReynolds numberTurbulenceMechanicsPhysicsNanofluid Flow and Heat TransferFluid Dynamics and Thin FilmsSolar Thermal and Photovoltaic Systems
Optimization of heat transfer performance of CuO/H<sub>2</sub>O nanofluid in Bessel‐like converging pipe using a two‐phase mixture model | Litcius