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Comparative Work for Darcy-Forchheimer Hybrid Nanofluid Flow Subject to Zinc Ferrite, Nickle Zinc Ferrite
Journal of Magnetics, Volume 26, Number 3, 30 Sep 2021, Pages 271-276
Abstract
Owing to thermal requirements of many industrial and engineering processes, this research presents the
improved feature of hybrid nanofluid with applications heat source and sinks features. The most fascinating
Zinc ferrite and Nickle Zinc ferrite nanoparticles are used to predict the thermal enhancement in engine oil and
Kerosene oil base materials. The radiative phenomenon with nonlinear relations is encountered to enhance the
heat transportation pattern. Moreover, the entropy generation assessment is also observed with significances of
optimized analysis. The consideration of porous space is inspected by using the Darcy-Forchheimer theory. A
comprehensive comparative analysis for enchantment of heat transfer rate is examined between both types of
nanoparticles. The physical influence of parameters for velocity, thermal gradient and entropy generation phenomenon
is visualized. It is observed that thermal efficiency of ferrite nanoparticles (MnZnFe2O4) with suspension
of engine oil (C8H18) base liquid is more progressive as compared to the suspensions of ferrite nanoparticles
and kerosene oil (C10H22) hybrid material.
improved feature of hybrid nanofluid with applications heat source and sinks features. The most fascinating
Zinc ferrite and Nickle Zinc ferrite nanoparticles are used to predict the thermal enhancement in engine oil and
Kerosene oil base materials. The radiative phenomenon with nonlinear relations is encountered to enhance the
heat transportation pattern. Moreover, the entropy generation assessment is also observed with significances of
optimized analysis. The consideration of porous space is inspected by using the Darcy-Forchheimer theory. A
comprehensive comparative analysis for enchantment of heat transfer rate is examined between both types of
nanoparticles. The physical influence of parameters for velocity, thermal gradient and entropy generation phenomenon
is visualized. It is observed that thermal efficiency of ferrite nanoparticles (MnZnFe2O4) with suspension
of engine oil (C8H18) base liquid is more progressive as compared to the suspensions of ferrite nanoparticles
and kerosene oil (C10H22) hybrid material.
Keywords: hybrid nanofluid; darcy-forchheimer flow; slip effects; entropy generation
DOI: https://doi.org/10.4283/JMAG.2021.26.3.271
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