Fully thermal radiation and electric field on magneto-hydrodynamic nanofluid convective mass transfer flow with activation energy
Source abstract
Abstract
The chemical reaction, viscous dissipation, non-linear thermal radiation, and activation energy on MHD laminar nanofluid flow across a vertical flat plate are considered in our present study. We also considered the uniform electric field 0,0,−E0, which is perpendicular to the xy plane. By taking suitable similarity functions and variables, Prandtl boundary layer type momentum and energy equations are changed to simultaneous ordinary nonlinear differential equations (ODEs). A numerical solution program for simultaneous ODEs is constructed by bvp5c (explicit finite difference code) in MATLAB software. The numerical results are then displayed graphically with the help of MS Excel in the form of required physical properties (velocity, temperature, and concentration) for considering various parameters. Skin friction Re1/2Cf, Nusselt number NuRe−1/2, and Sherwood number ShRe−1/2 are provided in a tabular form, which is our physical interest. Validation of numerical results of the present mathematical model with previously published data is provided in Table I.
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Research context
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Affiliations
Mathematics Department, American International University-Bangladesh , Dhaka 1229,
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