摘要：Thermal characteristics over a slippage permeable curved surface of mono and hybrid nanofluid convective flows. The surface is assumed to be convoluted with radius R in circle part. The salt-water is used as a base fluid to model the flow with graphene and silica nanoparticles. The magnetic effect is taken into consideration with a heat source (sink) and thermal radiative flow impact. The mathematical model is solved by Chebyshev spectral collocation method after transformed into a nondimensional form. The nanostructure thin films of [ S H 2 O / G O ] m nanofluid and [ S H 2 O / G O S i O 2 ] h are synthesized by using a spin-coating technique process with a thickness of 100 ± 3 nm/25 °C. The structure characterization (FT-IR spectrum and XRD) results from experimental and DFT-TDDFT (DMOl 3 ) data are studied for mono and hybrid nanofluids. The outcomes show that the temperature is declined with a curvature of the surface, while the flow velocity is boosted. Rate of heat transmit is enhanced with the radiative and suction flow. The results specifically determine that Δ E g O p t values decrease from 2.293 eV for [ S H 2 O / G O ] m mono nanofluid to 1.196 eV for [ S H 2 O / G O S i O 2 ] h hybrid nanofluid using the DFT computations E H O M O and E L U M O calculations. This result concluded that the [ S H 2 O / G O ] m transformed from semiconductor to [ S H 2 O / G O S i O 2 ] h as a super-conductor hybrid nanofluid by adding (SiO 2 nanoparticles).
关键词：[ S H 2 O ;G O S i O 2 ] h ; Characterization properties ; DFT ; Hybrid nanofluid ; Curved surface
