Boundary layer

Physics

Reynolds number

Heat transfer

Mechanics

Nusselt number

Engineering

Slip ratio

Composite material

Turbulence

Parasitic drag

Shear stress

Materials science

Slip (aerodynamics)

Nanofluid

Heat transfer coefficient

Drop (telecommunication)

Volume fraction

Mechanical engineering

Thermodynamics

Theoretical and Applied Mechanics Letters

Hybrid nanofluids have attracted burgeoning attention owing to their outstanding capacity to improve heat transfer. The influence of velocity and temperature slip parameter and nanoparticls' (NPs') volume fraction on a vertical plate in the existence of suction has been explored in this work. The investigation's controlling partial differentiation equations were transformed into a conventional differential equation mechanism using resemblance modifications. Equations were then solved employing the fifth-order Runge-Kutta method. The skin coefficient of friction, temperature, and temperature gradient all rise when the volume percentage of NPs increases from 0 to 2%. Furthermore, a rise in the temperature slip variable was linked to a drop in the Nusselt number (heat transfer).The Nusselt number increased 0.15% and 5.63% respectively when the velocity slip parameter enhanced from 0 to 5 and the NPs volume percentage were increased from 0 to 1.5%. Furthermore, an increase in the temperature slip from 0 to 3 inflated the x-direction skin friction coefficient 8.2%, while inflation in the velocity slip from 0 to 5 was associated with a decline in the x-direction skin friction coefficient 95%.

Hydrothermal analysis of hybrid nanofluid flow on a vertical plate by considering slip condition