Dynamics of radiative Williamson hybrid nanofluid with entropy generation: significance in solar aircraft

Abstract Sun based energy is the chief source of heat from the sun, and it utilizes in photovoltaic cells, sun-based power plates, photovoltaic lights and sun-based hybrid nanofluids. Specialists are currently exploring the utilization of nanotechnology and sun-based radiation to further develop fli...

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Main Author: Syed M. Hussain
Format: Article
Language:English
Published: Nature Portfolio 2022-05-01
Series:Scientific Reports
Online Access:https://doi.org/10.1038/s41598-022-13086-4
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author Syed M. Hussain
author_facet Syed M. Hussain
author_sort Syed M. Hussain
collection DOAJ
description Abstract Sun based energy is the chief source of heat from the sun, and it utilizes in photovoltaic cells, sun-based power plates, photovoltaic lights and sun-based hybrid nanofluids. Specialists are currently exploring the utilization of nanotechnology and sun-based radiation to further develop flight effectiveness. In this analysis, a hybrid nanofluid is moving over an expandable sheet. Analysts are presently exploring the utilization of nanotechnology and sunlight-based radiation to further develop avionics productivity. To explore the heat transfer rate phenomenon, a hybrid nanofluid stream is moving towards a trough having a parabolic type shape and is located inside of solar airplane wings. The expression used to depict the heat transfer phenomenon was sun based thermal radiation. Heat transfer proficiency of airplane wings is evaluated with the inclusion of distinguished effects like viscous dissipation, slanted magnetic field and solar-based thermal radiations. The Williamson hybrid nanofluid past an expandable sheet was read up for entropy generation. The energy and momentum expressions were solved numerically with the utilization of the Keller box approach. The nano solid particles, which are comprised of copper (Cu) and Graphene oxide, are dispersed utilizing SA (Sodium alginate) as an ordinary liquid (GO). A huge number of control factors, for example, temperature, shear stress, velocity, frictional element along with Nusselt number are investigated in detail. Intensification of thermal conduction, viscous dissipation and radiation improve the performance of airplane wings subjected to heat transmission. Hybrid nanofluid performance is much better than the ordinary nanofluid when it comes to heat transmission analysis.
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spelling doaj.art-a3c97efec54c4f0daa4bdf0705b9c3362022-12-22T00:35:10ZengNature PortfolioScientific Reports2045-23222022-05-0112112310.1038/s41598-022-13086-4Dynamics of radiative Williamson hybrid nanofluid with entropy generation: significance in solar aircraftSyed M. Hussain0Department of Mathematics, Faculty of Science, Islamic University of MadinahAbstract Sun based energy is the chief source of heat from the sun, and it utilizes in photovoltaic cells, sun-based power plates, photovoltaic lights and sun-based hybrid nanofluids. Specialists are currently exploring the utilization of nanotechnology and sun-based radiation to further develop flight effectiveness. In this analysis, a hybrid nanofluid is moving over an expandable sheet. Analysts are presently exploring the utilization of nanotechnology and sunlight-based radiation to further develop avionics productivity. To explore the heat transfer rate phenomenon, a hybrid nanofluid stream is moving towards a trough having a parabolic type shape and is located inside of solar airplane wings. The expression used to depict the heat transfer phenomenon was sun based thermal radiation. Heat transfer proficiency of airplane wings is evaluated with the inclusion of distinguished effects like viscous dissipation, slanted magnetic field and solar-based thermal radiations. The Williamson hybrid nanofluid past an expandable sheet was read up for entropy generation. The energy and momentum expressions were solved numerically with the utilization of the Keller box approach. The nano solid particles, which are comprised of copper (Cu) and Graphene oxide, are dispersed utilizing SA (Sodium alginate) as an ordinary liquid (GO). A huge number of control factors, for example, temperature, shear stress, velocity, frictional element along with Nusselt number are investigated in detail. Intensification of thermal conduction, viscous dissipation and radiation improve the performance of airplane wings subjected to heat transmission. Hybrid nanofluid performance is much better than the ordinary nanofluid when it comes to heat transmission analysis.https://doi.org/10.1038/s41598-022-13086-4
spellingShingle Syed M. Hussain
Dynamics of radiative Williamson hybrid nanofluid with entropy generation: significance in solar aircraft
Scientific Reports
title Dynamics of radiative Williamson hybrid nanofluid with entropy generation: significance in solar aircraft
title_full Dynamics of radiative Williamson hybrid nanofluid with entropy generation: significance in solar aircraft
title_fullStr Dynamics of radiative Williamson hybrid nanofluid with entropy generation: significance in solar aircraft
title_full_unstemmed Dynamics of radiative Williamson hybrid nanofluid with entropy generation: significance in solar aircraft
title_short Dynamics of radiative Williamson hybrid nanofluid with entropy generation: significance in solar aircraft
title_sort dynamics of radiative williamson hybrid nanofluid with entropy generation significance in solar aircraft
url https://doi.org/10.1038/s41598-022-13086-4
work_keys_str_mv AT syedmhussain dynamicsofradiativewilliamsonhybridnanofluidwithentropygenerationsignificanceinsolaraircraft