Rotational Microorganism Magneto-hydrodynamic Nanofluid Flow with Lorentz and Coriolis Force on Moving Vertical Plate

The electrically conducting rotational microbial nanofluid with Coriolis and Lorentz force over a moving plate in the vertical direction with the velocity ratio at the boundary condition is considered in this article. The modeled equations are converted into nonlinear ordinary with boundary conditions by using some similarity transformation. The governing equations are numerically solved by a bivariate spectral quasi-linearization technique. The influence of the numerous parameters is analyzed graphically for the velocity, thermal, solutal, and microorganism profiles. The collection points and error graph are also included in the manuscript for justifying the technique. The increasing values of the magnetic field parameters reduce the flow profile, and similar behavior is observed for the velocity ratio and buoyancy ratio parameters. The microbial profile is enhanced with the increment of Hall current, Brownian motion for microbial, and buoyancy ratio constraints. The comparison graph was also included, and the results are in favor of our model.