Computational analysis for thermo-diffusion applications of concentrated tri-hybrid nanoparticles with nonlinear radiated effects: the non-classical thermal model

The tri-hybrid nanofluids are an engineered class of nanomaterials, possessing effective heat transfer properties, promoting new applications in advanced energy systems, solar thermal collectors and heat exchangers. Due to such high-level and inspired uses of tri-hybrid concentrated nanofluids, the purpose of the present analysis is to provide biomedical applications of magnetized tri-nanoparticles under exposure to human blood. Tri-hybrid nanofluid thermal behaviour is supported using three various nanoparticles: aluminium dioxide (Al2O3), titanium oxide (TiO2), and silicon oxide (SiO2) with blood base material. The applications of thermo-diffusion effects are also observed. The problem of flow is considering the improved thermal theories. Thermal outcomes are also evidenced by the nonlinear-radiated model and applications of heat generation. Realistic convective thermal boundary conditions for thermal inspection simulation. After having the governing model represented by nonlinear differential equations, numerical computation is carried out by a shooting scheme. It has been noticed that the thermal impact of tri-hybrid nanofluid is more prominent and progressive. The heat transfer is enhanced due to the Biot number and Dufour constant. Furthermore, the increasing significance of the Soret number is detected for the concentration profile. The results assert that tri-nanofluid exhibits more eminent thermal outcomes, due to the synergistic characteristics of the three nanoparticles.