Stagnation point hybrid nanofluid flow past a stretching/shrinking sheet driven by Arrhenius kinetics and radiation effect

KHA model comprising MoS4and CoFe2O3in engine oil invoking non-similar Darcy–Forchheimer flow with entropy and Cattaneo–Christov heat flux

“…Under these considerations, the related expressions are: 43–48 within which ( u , v ) represent velocity components, μ hnf the dynamic viscosity, σ hnf the electrical conductivity, ( x , r ) the cylindrical coordinates, the inertia coefficient, ρ hnf the density, k p the porous space permeability, v hnf the kinematic viscosity, C b the drag force coefficient, T the temperature, ( C p ) hnf specific heat, Q 0 > 0 the heat generation coefficient, σ * Stefan Boltzmann constant, thermal diffusivity, k * mean absorption coefficient, k hnf the thermal conductivity, δ E the thermal relaxation time, T w the wall temperature, u 0 the reference velocity, and T ∞ the ambient temperature.…”

“…Slip impacts in the convection stagnation point flow of hybrid nanoliquid were reported by Zangooee et al 17 Khan et al 18 explored entropy in a radiating flow of hybrid nanoliquid through the Darcy–Forchheimer relation. Zainal et al 19 deliberated the influence of Arrhenius kinetics in hybrid nanomaterial flow by a shrinking and stretching surface with radiation. It should be noted that there have been few attempts to study hybrid nanoliquid flow.…”

Implementing the multistep adams-bashforth numerical approach on magnetohydrodynamic radiated casson fluid with darcy forchheimer, dissipation and activation energy

“…Henda et al [25] analyzed the uses of activation energy in the flow of third grade MHD nanofluids moving on the stretchy cylinder/sheet. Zainal et al [26] investigated the nanofluids flow past in the stretchy surface with Arrhenius energy and stagnation point. The latest literature for boundary layer flow analysis of diverse non-Newtonian fluid which is passing on this type of surface are cited here [27][28][29][30][31].…”

Stagnation Point Flow and Heat transfer of Hybrid Nanofluid over a Stretching/Shrinking Cylinder with Suction/Injection Effects

“…Due to the decision to improve thermal efficiency, the exclusive behavior of hybrid nanofluids is actively emphasized. Thus, Zainal et al, [21] proposed a mathematical model to address the stagnation point alumina-copper/water hybrid nanofluid flow, and the effect of Arrhenius dynamics and thermal radiation on stretching or shrinking sheet. In contrast to viscous and nanofluidic flows, hybrid nanofluidic flows have been convincingly demonstrated to enhance surface friction coefficients and heat transfer properties.…”