Thermal analysis of micropolar hybrid nanofluid inspired by 3D stretchable surface in porous media

Alqahtani, Aisha M.; Ullah, Basharat; Ahmad, Bilal; Khan, Umar; Wahab, Hafiz Abdul; Alroobaea, Roobaea

doi:10.1039/d3na00687e

Nanoscale Adv.

2023

DOI: 10.1039/d3na00687e

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Thermal analysis of micropolar hybrid nanofluid inspired by 3D stretchable surface in porous media

Aisha M. Alqahtani,

Basharat Ullah,

Bilal Ahmad

et al.

Abstract: Applications: The study of highly advanced hybrid nanofluids has aroused the interest of academics and engineers, particularly those working in the fields of chemical and applied thermal engineering. The improved...

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2024

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Cited by 2 publications

References 20 publications

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Thermal optimization of buoyancy driven radiative engine-oil based viscous hybrid nanofluid flow observing the micro-rotations in an inclined permeable enclosure

Abbas,

Xinhua,

Rasool

et al. 2024

Case Studies in Thermal Engineering

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Thermal optimization of buoyancy driven radiative engine-oil based viscous hybrid nanofluid flow observing the micro-rotations in an inclined permeable enclosure

Abbas,

Xinhua,

Rasool

et al. 2024

Case Studies in Thermal Engineering

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Dynamics of ternary nanofluid through radiated sensor surface: Numerical investigation

Ullah,

Afzal,

Khan

et al. 2024

Mod. Phys. Lett. B

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Application: The impact of flow, heat transfer, and magneto hydrodynamics on sensor surfaces between two parallel compressing plates with porous walls has been examined in this study. This study focuses on understanding unsteady compressed flow in two dimensions, utilizing Aluminum oxide, copper oxide, and titanium dioxide with base fluid polymers as the base fluid. Nanofluids, known as nanometer suspensions in traditional nanoscale fluid transfer, are explored for their potential application in improving lubricative and cooling properties. Purpose and methodology: This study aims to investigate the behavior of a tri-hybrid nanofluid (Aluminum oxide, copper oxide, and titanium dioxide with base fluid polymers) in terms of flow dynamics, heat transfer, and magneto hydrodynamics. Energy and momentum equations, considering magneto hydrodynamic forms and heat transfer, are analyzed. The study employs numerical methods, including similarity transforms and a shooting approach, to solve the governing equations. Core findings: Several parameters, including permeable parameter, magnetic parameter, squeeze flow index parameter, volume fraction by nanoparticles, and radiation parameter, are investigated for their effects on temperature profile and velocity profile. The study illustrates these effects graphically and discusses the influence of these parameters on different components of velocity and temperature fields. Additionally, the impact of the radiation parameter ([Formula: see text] on temperature fields is examined for both positive. Future work: Future research may focus on further optimizing the tri-hybrid nanofluid composition for specific applications, exploring additional parameters that may affect flow behavior, heat transfer, and entropy generation. Additionally, experimental validation of the numerical findings and the development of more advanced numerical techniques for solving complex fluid dynamics problems could be the areas of interest for future work.

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Thermal analysis of micropolar hybrid nanofluid inspired by 3D stretchable surface in porous media

Abstract: Applications: The study of highly advanced hybrid nanofluids has aroused the interest of academics and engineers, particularly those working in the fields of chemical and applied thermal engineering. The improved...

Cited by 2 publications

References 20 publications

Thermal optimization of buoyancy driven radiative engine-oil based viscous hybrid nanofluid flow observing the micro-rotations in an inclined permeable enclosure

Thermal optimization of buoyancy driven radiative engine-oil based viscous hybrid nanofluid flow observing the micro-rotations in an inclined permeable enclosure

Dynamics of ternary nanofluid through radiated sensor surface: Numerical investigation

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