Applications of magnetic induction for jeffrey nanofluid subject to suspension of microorganisms with nonlinear radiative effects and Cattaneo-Christov approach

The induction of induced magnetic force to flow of nanofluid presents crucial applications in the magnetically controlled cooling process, nuclear systems, thermal processes and improving the heat dissipation in microelectronic and industrial systems. Owing to such motivated applications, the objective of current analysis is to investigated the significance of induced magnetic force for bioconvective stagnation point flow of Jeffrey nanofluid due to stretched surface with porous medium. The nonlinear radiative effects and convective thermal constraints are considered to evaluates the heat transfer impact. The prediction for mass and heat transfer is subject to implementation of advance Fourier approach. Numerical computations are performed with help of shooting technique. It has been noticed that the utilization of induced magnetic force affects the mass and heat transfer phenomenon. The effects of magnetic parameter on heat and mass transfer phenomenon has been examined. The simulated findings offer potential applications in the magnetically controlled systems, heat exchangers, fusion processes and microfluidic heat exchangers.