The advancement of nanofluid technology has become an essential tool for
investigating thermal conductivity enhancement, which is highly valuable
for industrial and engineering applications in many fields including
mathematics, physics, engineering, and materials science. This analysis
focuses on 3-D boundary-layer flow on nanofluid over a rotating disk by
incorporating chemical reaction and thermal radiations effects. One aim of
this article is to analyze the energy and mass transport rates for
nanofluids. In this study, the Brownian motion and thermophoretic impacts
are considered. The governing flow equations are converted to ODE via
suitable similarity transformations. The resulting equations were solved via
well know technique Keller box method. This analysis revealed that the
azimuthal and axial velocities show an inverse pattern against the various
values of index factor, n, although the radial velocity has the highest
value and decreases significantly. The behavior of the von Karman flow is
also recovered for setting the index factor (n = 1). Moreover, it is found
that the temperature of nano liquid increases by increasing the Brownian
motion and thermophoretic factors.