Two-Dimensional Laminar Boundary Layers Hydromagnetic Arrhenius Kinetics Dissipative Fluid Reactive Flow in Non-Slip Conditions with Variable Properties

This study investigates non-slip hydromagnetic laminar dissipation flow with Arrhenius kinetics in binary reactions characterized by reaction order and variable properties within an unbounded isothermal device. The partial differentiation model is nondimensionalized to a thermofluidic dimensionless form. An invariant quasi-linear coupled ordinary derivative model is obtained using similarity quantities and solved using the Shooting scheme coupled with the Runge-Kutta method. Results show that species mixture reduces flow velocity but increases binary species reaction by 0.734%. Activation energy and material coefficients enhance the thermal profile within the flow medium. This provides insights for industrial development in selecting working fluid properties.