Influence of suction and heat source on MHD stagnation point flow of ternary hybrid nanofluid over convectively heated stretching/shrinking cylinder

Abstract

Heat flow may be improved using a new form of nanofluid known as ternary hybrid nanofluid. Magnetic field, mass suction, and heat source effects on the stagnation area of [Formula: see text]) ternary hybrid nanofluid toward convectively heated stretching/shrinking cylinder with cylindrical shape nanoparticles are studied in this work. There will be an equation modeled under the given assumptions. It is feasible, with the help of similarity transformation, to convert nonlinear partial differential equations that are not quite solvable into ordinary differential equations that can be resolved numerically. The prevailing role of heat transfer and the features of movement of ternary hybrid nanofluids have been found to be significantly affected by the combination of Runge–Kutta-IV and the shotting technique in Mathematica. Many variables, including suction, Reynold number, nanoparticle volume fraction, magnetic field, Biot number, heat source, and stretching/shrinking influenced temperature, velocity, skin friction, and the local heat transfer rate, as shown in the graphs in the study. When magnetic field, suction, and Reynold number are present velocity increases, but inverse is true for nanoparticle volume fraction and stretching/shrinking parameter. The greatest influence on the surface is shown by the ternary hybrid nanofluid. Additionally, the heat transfer rate of the ternary hybrid nanofluid is faster than that of the hybrid and regular nanofluids.

Impact of an effective Prandtl number model on the flow of nanofluids past an oblique stagnation point on a convective surface

“…The development of tables [ 5 , 6 ] was necessitated by the need to handle physical aspects that were significant, such as aspects as well as at the convective stretching surface, regardless of whether a Prandtl number was efficient or not. It is evident from these data that the normal and tangential skin friction and local heat transfer aspects grow with increasing volume friction in both and nanofluids studied.…”

“…The problem of momentum and heat transmission near the stagnation point is both theoretical and practical. So, being able to control the rate at which heat is transmitted at the interface is quite useful [ [4] , [5] , [6] , [7] ].…”

Quadratic regression analysis of the unsteady Ag+TiO2/H2O, Ag+TiO2/CH3OH and Ag+TiO2/H2O‐C2H6O2 hybrid nano‐fluids flow along a deformable cylinder with oblique Lorentz force: A comparative approach

“…Convective heating, velocity slip and nonlinearly varying radiation impressions on hybrid nanofluid flow over a deformable surface with suction was reported by Adnan et al [43]. Mahmood et al [44] examined the sway of convective boundary condition, suction and heat source on magnetite hybridized nanofluid flow towards an elongating cylinder.…”

“…Mahmood et al. [44] examined the sway of convective boundary condition, suction and heat source on magnetite hybridized nanofluid flow towards an elongating cylinder.…”

Comparative study of ternary hybrid nanofluids with role of thermal radiation and Cattaneo-Christov heat flux between double rotating disks

“…Various non-Newtonian theories for ternary hybrid nanostructures were evaluated by Nazir et al 12 . The influence of suction and heat source on ternary hybrid nanofluid MHD flow through a cylinder was explored by Mahmood et al 13 . Sajid et al 14 looked at the chemical processes that occur when Arrhenius energy is applied to ternary hybridity nanofluids over a wedge.…”