Analysis of Non-Linear Radiation and Activation Energy Analysis on Hydromagnetic Reiner–Philippoff Fluid Flow with Cattaneo–Christov Double Diffusions

Using magnetohydrodynamics (MHD), the thermal energy and mass transport boundary layer flow parameters of Reiner–Philippoff fluid (non-Newtonian) are numerically investigated. In terms of energy and mass transfer, non-linear radiation, Cattaneo–Christov double diffusions, convective conditions at th...

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Bibliographic Details
Published in:Mathematics (Basel) 2022-05, Vol.10 (9), p.1534
Main Authors: Nasr, Mohamed E., Gnaneswara Reddy, Machireddy, Abbas, W., Megahed, Ahmed M., Awwad, Essam, Khalil, Khalil M.
Format: Article
Language:English
Subjects:
Activation analysis
Activation energy
Boundary conditions
Boundary layer flow
Cattaneo–Christov double diffusions
Chemical engineering
Chemical reactions
convective conditions
Flow equations
Fluid dynamics
Fluid flow
Food science
Heat
Investigations
Magnetic fields
Magnetohydrodynamics
Manufacturing
Mass transfer
Mass transport
non-linear radiation
Non-Newtonian fluids
Nuclear energy
Nuclear power plants
Parameters
Partial differential equations
Radiation
Reiner–Philippoff fluid
Relaxation time
Thermal energy
Thermal relaxation
Viscosity
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Summary:Using magnetohydrodynamics (MHD), the thermal energy and mass transport boundary layer flow parameters of Reiner–Philippoff fluid (non-Newtonian) are numerically investigated. In terms of energy and mass transfer, non-linear radiation, Cattaneo–Christov double diffusions, convective conditions at the surface, and the species reaction pertaining to activation energy are all addressed. The stated governing system of partial differential equations (PDEs) is drained into a non-linear differential system using appropriate similarity variables. Numerical solutions are found for the flow equations that have been determined. Two-dimensional charts are employed to demonstrate the flow field, temperature and species distributions, and rate of heat and mass transfers for the concerned parameters for both Newtonian and Reiner–Philippoff fluid examples. The stream line phenomenon is also mentioned in this paper. A table has also been utilized to illustrate the comparison with published results, which shows that the current numerical data are in good accord. The findings point to a new role for heat and mass transfer. According to the findings, increasing values of solutal and thermal relaxation time parameters diminish the associated mass and thermal energy layers. The current study has significant ramifications for chemical engineering systems.
ISSN:2227-7390
2227-7390
DOI:10.3390/math10091534