Induced magnetic force and bioconvection analysis in magnetized viscoelastic nanofluid under radiation effect

The induction of the induced magnetic field with nanofluids presents novel applications in renewable energy, solar collectors and MHD power generation. This contribution aims to explore the significance of induced magnetic force in bioconvective transport of Walters B nanofluid subject to nonlinear radiated effects. The rheological behavior of non-Newtonian material is described by Walters B fluid. The porous saturated surface endorsed the flow. The investigation considered the aspects of magnetohydrodynamics (MHD) features and additional heat sources. The modification in heat and mass transfer equations is subject to implementation of famous Cattaneo-Christov model. Uniform convective thermal constraints are imposed to make the model more realistic and novel. The novelty of current analysis is subject to decomposition of viscoelastic nanofluid with assessment of bioconvection under the influence of induced magnetic flow, providing significant interest in advanced engineering systems and biomedical applications. The comprehensive framework is solved numerically via shooting technique. Physical results against the key parameters are evaluated graphically and studied comprehensively. It has been examined that magnetic parameter increases the velocity profile as well as induced magnetic induction. The velocity profile retarded due to viscoelastic parameter. Furthermore, concentration profiles are reduced due to concentration relaxation number. The findings present valuable insights into optimization of thermal systems, industrial heating and cooling processes and biotechnological applications like biofuels, fertilizers, and design of microfluidic devices. Furthermore, this results insights into magnetized viscoelastic nanofluid with heat transfer induction of magnetic force provide fundamental applications in the precision control systems and magnetic resonance imaging (MRI).