Numerical exploration for bioconvective nanofluid flow towards a rotating surface with chemical reaction and radiative effects

This investigation explored the bioconvection applications in rotatory disk nanofluid flow with implementation of magnetic field. The heat transfer analysis involved the significance of radiated effects while chemical reactive species are utilized to the concentration equation. The investigation accounts the convective thermal constraints to analyze the heat transfer impact. The problem is simplified by using the appropriate variables and set of dimensionless equations has been obtained. For solution methodology, shooting technique is adopted. A detailed physical analysis is performed in view of modeled flow parameters. It has been observed that azimuthal velocity component increases due to ratio of stretching to rotation parameter. Change in ratio of stretching to rotation parameter enhances declines the temperature profile.