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The flow of nanofluid across an exponential stretchable surface becoming a growing topic in past few decades due to its numerous usages in industrial and engineering areas. Particularly, glass blowing, polymer extrusion, wire drawing, hot rolling, annealing, etc. This communication mainly focuses on the flow of Maxwell nanofluid via an exponential stretchable surface with magnetic impact and heat consumption. Thermophoresis and Brownian motion are also considered with the existence of heat radiation and fluid dissipation in a two dimensional model with gyrotactic microorganisms. The nonlinear governing models are changed into an ordinary differential models by incorporating the appropriate translation variables. The remodeled equations are numerically computed by utilizing the bvp4c approach in MATLAB. The impact of the physical features on velocity, temperature, nanofluid concentration, and microorganisms profiles, as well as the skin friction coefficient, Nusselt, Sherwood and motile density numbers are evaluated. Further, findings revealed that the fluid velocity diminishes when enriching the values of the magnetic and material factors. The thermophoresis factor causes the nanofluid temperature and concentration profiles to develop. The microorganisms profile declines when enriching the Peclet and Lewis numbers. The radiation factor improves the heat and mass transference rates. The motile density number develops for greater quantity of the microorganism difference parameter with the presence of the Peclet number.
Chouhan et al. (Sat,) studied this question.