Rheology of thermally convective flow of hybrid nanomaterial through slender needle: numerical computation

In industrial process, improving the transfer of heat has become the primary focus. In comparison with convectional heat transfer fluids and nanofluids containing single nanoparticles, hybrid nanofluids have the potential to offer improved heat transfer performance and thermophysical features. In or...

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Veröffentlicht in:	Journal of thermal analysis and calorimetry Jg. 148; H. 24; S. 14205 - 14213
Hauptverfasser:	Yasir, Muhammad, Khan, Masood
Format:	Journal Article
Sprache:	Englisch
Veröffentlicht:	Cham Springer International Publishing 01.12.2023 Springer Springer Nature B.V
Schlagworte:	Alumina Analytical Chemistry Approximation Boundary conditions Chemistry Chemistry and Materials Science Conductivity Convective flow Differential equations Ethylene glycol Fluid flow Friction drag Heat conductivity Heat transfer Inorganic Chemistry Investigations Mathematical analysis Measurement Science and Instrumentation Nanofluids Nanomaterials Nanoparticles Numerical analysis Ordinary differential equations Partial differential equations Physical Chemistry Physical properties Polymer Sciences Radiation Rheological properties Rheology Skin friction Temperature Thermophysical properties Transport properties Transport rate Velocity Non-uniform heat source/sink Slender needle Thermally radiative flow Numerical computation Hybrid nanomaterial
ISSN:	1388-6150, 1588-2926
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Abstract	In industrial process, improving the transfer of heat has become the primary focus. In comparison with convectional heat transfer fluids and nanofluids containing single nanoparticles, hybrid nanofluids have the potential to offer improved heat transfer performance and thermophysical features. In order to approximate the flow and thermal transport properties, a numerical investigation is conducted in this study. The present study investigates the radiative hybrid silica–alumina/ethylene glycol nanofluid flow properties of heat transfer and fluid flow toward thin needle. The fluid flow model is designed to be governed by a partial differential equation. The PDEs are turned into ODEs using similarity requirements, and then solved numerically using the finite difference approach via the built-in MATLAB function bvp4c. The outcome of flow controlling parameters on velocity, temperature, friction drag, and heat transport rate is presented. The study exhibits that duality of solutions occurs in a particular range when χ c < χ ≤ - 2.2 and unique solution at χ > - 2.2 . The results revel that reduction in skin friction and heat transport rate occurs by the inclusion of magnetic strength in hybrid nanofluid. It is also found that when the size of solid nanoparticle increased, the rate of heat transfer across the needle’s surface dramatically improved.
AbstractList	In industrial process, improving the transfer of heat has become the primary focus. In comparison with convectional heat transfer fluids and nanofluids containing single nanoparticles, hybrid nanofluids have the potential to offer improved heat transfer performance and thermophysical features. In order to approximate the flow and thermal transport properties, a numerical investigation is conducted in this study. The present study investigates the radiative hybrid silica–alumina/ethylene glycol nanofluid flow properties of heat transfer and fluid flow toward thin needle. The fluid flow model is designed to be governed by a partial differential equation. The PDEs are turned into ODEs using similarity requirements, and then solved numerically using the finite difference approach via the built-in MATLAB function bvp4c. The outcome of flow controlling parameters on velocity, temperature, friction drag, and heat transport rate is presented. The study exhibits that duality of solutions occurs in a particular range when χc<χ≤-2.2 and unique solution at χ>-2.2. The results revel that reduction in skin friction and heat transport rate occurs by the inclusion of magnetic strength in hybrid nanofluid. It is also found that when the size of solid nanoparticle increased, the rate of heat transfer across the needle’s surface dramatically improved. In industrial process, improving the transfer of heat has become the primary focus. In comparison with convectional heat transfer fluids and nanofluids containing single nanoparticles, hybrid nanofluids have the potential to offer improved heat transfer performance and thermophysical features. In order to approximate the flow and thermal transport properties, a numerical investigation is conducted in this study. The present study investigates the radiative hybrid silica-alumina/ethylene glycol nanofluid flow properties of heat transfer and fluid flow toward thin needle. The fluid flow model is designed to be governed by a partial differential equation. The PDEs are turned into ODEs using similarity requirements, and then solved numerically using the finite difference approach via the built-in MATLAB function bvp4c. The outcome of flow controlling parameters on velocity, temperature, friction drag, and heat transport rate is presented. The study exhibits that duality of solutions occurs in a particular range when [Formula omitted] and unique solution at [Formula omitted] The results revel that reduction in skin friction and heat transport rate occurs by the inclusion of magnetic strength in hybrid nanofluid. It is also found that when the size of solid nanoparticle increased, the rate of heat transfer across the needle's surface dramatically improved. In industrial process, improving the transfer of heat has become the primary focus. In comparison with convectional heat transfer fluids and nanofluids containing single nanoparticles, hybrid nanofluids have the potential to offer improved heat transfer performance and thermophysical features. In order to approximate the flow and thermal transport properties, a numerical investigation is conducted in this study. The present study investigates the radiative hybrid silica–alumina/ethylene glycol nanofluid flow properties of heat transfer and fluid flow toward thin needle. The fluid flow model is designed to be governed by a partial differential equation. The PDEs are turned into ODEs using similarity requirements, and then solved numerically using the finite difference approach via the built-in MATLAB function bvp4c. The outcome of flow controlling parameters on velocity, temperature, friction drag, and heat transport rate is presented. The study exhibits that duality of solutions occurs in a particular range when χ c < χ ≤ - 2.2 and unique solution at χ > - 2.2 . The results revel that reduction in skin friction and heat transport rate occurs by the inclusion of magnetic strength in hybrid nanofluid. It is also found that when the size of solid nanoparticle increased, the rate of heat transfer across the needle’s surface dramatically improved.
Audience	Academic
Author	Yasir, Muhammad Khan, Masood
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Keywords	Non-uniform heat source/sink Slender needle Thermally radiative flow Numerical computation Hybrid nanomaterial
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SubjectTerms	Alumina Analytical Chemistry Approximation Boundary conditions Chemistry Chemistry and Materials Science Conductivity Convective flow Differential equations Ethylene glycol Fluid flow Friction drag Heat conductivity Heat transfer Inorganic Chemistry Investigations Mathematical analysis Measurement Science and Instrumentation Nanofluids Nanomaterials Nanoparticles Numerical analysis Ordinary differential equations Partial differential equations Physical Chemistry Physical properties Polymer Sciences Radiation Rheological properties Rheology Skin friction Temperature Thermophysical properties Transport properties Transport rate Velocity
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Title	Rheology of thermally convective flow of hybrid nanomaterial through slender needle: numerical computation
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