Author/Authors :
Sreenivasulu, P. Department of Mathematics - SVEC, Tirupati, India , Poornima, T. Department of Mathematics - SAS - VIT University, Vellore, T.N, India , Vasu, B. Department of Mathematics - Motilal Nehru National Institute of Technology Allahabad, Prayagraj, Uttar Pradesh, India , Reddy Gorla, Rama Subba Department of Aeronautics and Astronautics - Air Force Institute of Technology - Wright Patterson Air Force Base, Dayton, Ohio, USA , Bhaskar Reddy, N. Department of Mathematics - SV University, Tirupati, India
Abstract :
In the present article, the novel contributions are modelling of Upper convected Maxwell nanoflow under Lorentzian
influence over a stretching surface and investigating it using bvp4c procedure with MATLAB software. The boundary is set fixed
with axial slip. Non-linear energy distribution is incorporated. Similarity variables are utilized to transmute non-linear PDEs of
the basic fluid model to coupled system of ODEs. Computed numerical results are better compared with the past literature work
to evidence its efficacy. The nanoflow momentum, energy, species diffusion are visualized graphically and analyzing the
performance of proficient physical quantities on shear stress, energy dispersion coefficient, mass diffusion coefficient scatter of
the system are seen through tables. Presence of magnetic field reduces friction at the wall and acts as a cooling agent. Navier slip
increases the friction factor near the wall. Non-linear radiation transfers more heat from the system. Energy transfer coefficient is
high in linear thermal rather than non-linear thermal distribution.
Keywords :
Lorentzian force , Non-linear radiation , Maxwell fluid , Heat transfer , Navier slip
