A Computational Model for the Radiated Kinetic Molecular Postulate of Fluid-Originated Nanomaterial Liquid Flow in the Induced Magnetic Flux Regime

The performance of mass transfer rate, friction drag, and heat transfer rate is illustrated in the boundary layer flow region via induced magnetic flux. In this recent analysis, the Buongiorno model is introduced to inspect the induced magnetic flux and radiative and convective kinetic molecular the...

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Bibliographic Details
Published in:Mathematical problems in engineering 2021-06, Vol.2021, p.1-17
Main Authors: Hussain, Azad, Rehman, Aysha, Nadeem, Sohail, Khan, M. Riaz, Issakhov, Alibek
Format: Article
Language:English
Subjects:
Approximation
Boundary conditions
Boundary layer flow
Computational fluid dynamics
Cosmetics
Enlargement
Friction drag
Heat transfer
Investigations
Liquid flow
Magnetic fields
Magnetic flux
Magnetic properties
Magnetism
Mass transfer
Mathematical models
Molecular theory
Nanomaterials
Nanoparticles
Non-Newtonian fluids
Nuclear power plants
Ordinary differential equations
Parameters
Partial differential equations
Prandtl number
Radiation
Thermophoresis
Transport rate
Velocity
Viscosity
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Summary:The performance of mass transfer rate, friction drag, and heat transfer rate is illustrated in the boundary layer flow region via induced magnetic flux. In this recent analysis, the Buongiorno model is introduced to inspect the induced magnetic flux and radiative and convective kinetic molecular theory of liquid-initiated nanoliquid flow near the stagnant point. The energy equation is modified by radiation efficacy using the application of the Rosseland approximation. Through similarity variables, the available formulated partial differential equations are promoted into the nondimensional structure. The variation of the induced magnetic field near the wall goes up, and very far away, it decays when the size of the radiation characteristic ascends. The velocity amplitude expands by enlargement in the amount of the magnetic parameter, mixed convection, thermophoresis parameter, and fluid characteristic. The nanoparticle concentration reduces if the reciprocal of the magnetic Prandtl number expands. The temperature spectrum declines by enhancing the amount of the magnetic parameter. Drag friction decreases by the increment in the values of radiation and thermophoresis parameters. Heat transport rate increases when there is an increase in the values of Brownian and magnetic parameters. Mass transfer rate increases when there is incline in the values of the magnetic Prandtl and fluid parameter.
ISSN:1024-123X
1563-5147
DOI:10.1155/2021/6690366