Mathematical Model for MHD Micropolar fluid in with Chemical Reaction towards an Exponential Curved Surface
DOI:
https://doi.org/10.37934/cfdl.17.2.1742Keywords:
Mixed convection, viscous Dissipation, Joule heating, chemical reaction, Keller Box methodAbstract
The current article delineates the aspects of MHD Micropolar fluid flow with chemical reaction towards an exponentially stretchable curved surface. Aspects of heat transmission are delineated by incorporating joule heating and thermal radiation and viscous Dissipation. To frame the mathematical model, curvilinear co-ordinates are employed. Similarity variables are deployed to transfigure the flow modelling PDE’s into ODE’s. A familiar numerical approach namely Keller box method is operated to resolve the resultant ODE’s. Influence of diverse parameters such as material parameter, curvature parameter, magnetic parameter and chemical reaction parameter has been scrutinized via graphical way. Velocity and Microrotation velocity exhibits unlike nature for magnetic parameter .Temperature exhibits similar response according to variations in , and .Temperature exhibits alike functioning according to variations in , and .Concentration exhibits improvement for variations in and while it decreases for variations in , Sc and .An adequate resemblance has been detected with existing results.
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