A novel analytical approach to micro-polar nanofluid thermal analysis in the presence of thermophoresis, Brownian motion and Hall currents

The present study analyzed micro-polar nanofluid in a rotating system between two parallel plates with electric and magnetic fields. fluid flow was performed steady state. governing equations of the issue are considered coupled nonlinear proper similar variables. Numerical new semi-analytical methods have been employed to solve problem define exactness results. influence physical parameters is investigated illustrated detail diagram. Results show that velocity profile micro-rotation increased when parameter increased. Furthermore, by increasing rotation parameter. Also, case temperature profile, Reynolds Schmidt numbers an inverse effect, Prandtl number Brownian motion direct effect. Other results indicate concentration value declines thermophoretic number. compared prior research display good accuracy efficiency. demonstrates method provides quantifiable reliable outcomes while requiring less computing work than conventional techniques. This offers significant advantages terms simplicity, applicability, computational efficiency accuracy.