Computational analysis of Lorentz force on Prandtl two phase nanomaterial involving microorganism due to stretching Cylinder

Abstract When microbes and nanomaterials are combined, treatments can be more effectively distributed and targeted. Inspired by these, the current investigation focuses on the mixed convective flow of Prandtl nanomaterial in the presence of a magnetic field and gyrotactic microorganisms across a vertical cylinder. Heat and mass transport are computed through thermal and solutal convective conditions. The Buongirno's nanoscale component has been applied for the Brownian movement and thermophoretic body force. Moreover, the additional effect is examined through thermal radiation and chemical reactions. The flow simulation is created using dimensionless equations with effective parameters. Employing bvp4c symbolic software, the calculated results are displayed. A detailed interpretation and graphic representation are provided of the effects of several thermophysical, nanocomponent, rheological parameters, concentration of nanoparticles and motile density on transport characteristics. Increases in the viscoelastic number and mixed convection parameter increase velocity while deprecating in the magnetic field. The Biot number and heat radiation significantly raises the thermal field. Moreover, an enhancement in the chemical reaction depreciates the concentration. Bioconvection Lewis number and Peclet number diminished the microorganism variable.