Trihybrid Casson Nanofluid Boosts Hemispherical Heat Transfer Rate by Twenty-Nine Percent
Simulating non-Newtonian Casson fluid over a hemispherical boundary reveals that a trihybrid nanofluid enhances convective heat transfer by 28.63 percent ...
Simulating non-Newtonian Casson fluid over a hemispherical boundary reveals that a trihybrid nanofluid enhances convective heat transfer by 28.63 percent ...
A study presents a dual numerical framework that successfully resolves yield stress discontinuities and boundary layer behavior in regularized Herschel-Bulkley ...
A numerical simulation shows switching from heat generation to absorption raises the Nusselt number by 43.7 percent in non-Newtonian boundary ...
A computational fluid dynamics study reveals that magnetic fields reduce axial velocity and heat transfer rates while internal heat generation ...
A computational investigation reveals that a water-based ternary hybrid nanofluid containing gold, iron oxide, and titanium dioxide nanoparticles yields substantially ...
Researchers used numerical shooting methods and artificial neural networks to accurately predict heat transfer, fluid flow, and entropy generation in ...
A semi-analytical modeling study reveals that increasing geometric surface curvature reduces localized fluid resistance and expands the momentum boundary layer ...
A computational investigation demonstrates that adding a three-nanoparticle mixture to an electroosmotic fluid over an electromagnetic surface enhances heat transfer ...
Simulations reveal that external magnetic fields and porous resistance sharply increase skin friction while suppressing heat transfer in micropolar fluid ...
Simulations reveal that triangular transverse ridges maximize microchannel heat transfer while rectangular ridges optimize cooling under lower pumping-power constraints.
© 2026 Scienmag - Science Magazine
© 2026 Scienmag - Science Magazine