An extensive diversity of industrial processes captivate the transfer of heat energy. An extensive task for industrial necessity throughout every industrial efficiency, heat and mass transfer taking place from one process stream to another. These processes provide a source for energy recovery and process fluid heating/cooling. In the present investigation we study the Boger nanofluid flow with carbon nanotubes over a riga plate. Borger nanofluid model is used to characterize the behavior of the fluids having activation energy (E), Solvent fraction parameter (β1), and ratio of relaxation time parameter (λ1) over a riga plate. The modeled boundary layer conservation equations are renovated to non-linear coupled ordinary differential equations by a suitable transformation. Python programming language with bvp solver was adopted to obtain numerical solutions of the resulting equations by using the Runge–Kutta method along with shooting technique. This analysis reveals many significant physical aspects of flow and heat transfer. Estimations are achieved over thermo-physical parameter with single walled carbon nanotubes (SWCNT) and multi walled carbon nanotubes (MWCNT).