Rheological Model for Generalized Energy and Mass Transfer through Hybrid Nanofluid Flow Comprised of Magnetized Cobalt Ferrite Nanoparticles
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Date
2022-04
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Hindawi
Abstract
The goal of the current research is to evaluate a 3D stagnation point flow of Darcy Forchheimer’s hybrid nanofluid (NF) through a
heated wavy flexible cylinder under the influence of slip conditions and varying thickness. A numerical model is developed for the
purpose to magnify the energy and mass transmission rate and maximize the efficiency and performance of thermal energy
conduction for a variety of commercial and biological purposes through methanol-based hybrid NF flow consisting of cobalt
ferrite and copper nanoparticles. Due to their inclusive range of applications, copper and cobalt iron oxide nanoparticles are
gaining a lot of attention in medical and technical research. The model has been articulated in the form of a set of PDEs,
which are reduced by the resemblance substitutions to the system of ODEs. The obtained 1st-order differential equations are
further processed by the computational strategy PCM. For the sake of accuracy and credibility, the values are verified with the
bvp4c package. The findings are physically exhibited and analyzed. It has been observed that the induced magnetic field lessens
with the upshot of the magnetic term and enhances under the action of magnetic Prandtl number M. The energy profile
declines due to the variation of thermal jump constraint and boosts with the absorption and generation term.
Description
This article is published by Hindawi 2022 and is also available at https://doi.org/10.1155/2022/7120982
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Citation
Hindawi Journal of Nanomaterials Volume 2022, Article ID 7120982, 11 pages