Radiative energy transportation of nanoscale particles towards bilinear stretching surface with convective mass transfer

A numerical investigation for three dimensional Eyring Powell nanofluid over a nonlinear surface with convective mass and thermal boundary conditions is carried out in presence of thermal radiation. The mathematical modeling of this physical situation is carried out and formulated nonlinear system of partial differential equation is simplified by employing nonlinear type similarity transformation. The well known reliable numerical technique shooting method along with Runge-Kutta of order four five is incorporated to gain numerical results. The influence of several significant parameters on fluid axial and transverse velocities, nanoparticle temperature and concentration are displayed and discussed graphically while coefficients of skin friction along two lateral directions, Nusselt and Sherwood number examination for distinct values of patient parameters are examined and shown through tables. One of the main findings from the present analysis is the usage of nanoparticles suspended fluids to gain optimal heat transfer through thermal radiations. It is emphasized to the application of nanofluids for restoring solar energy.