Abstract
This study looks at the impact of a magnetic dipole on swirling flow and heat transmission over a deformable cylinder. This model considers the impacts of alumina alloys nanoparticles as well as linear radiation in (AA7075 and AA7072) viscous nanofluids-based-H2O. The Navier–Stokes equation was utilized to express the predicted flow quantitatively. The partial differential equations (PDEs) required to investigate the flow assumptions were created using the boundary layer approximation of the Navier–Stokes equation. The ordinary differential equations (ODEs) formalism can be employed by modifying the system with similar conversions. The bvp4c methodology is employed to describe a system with no dimensions. The numerical and graphical representations of the data provide a clear understanding of the roles played by the essential physical constituents. The results showed that the increment in aluminium alloys nanoparticles reduces the surface frictional forces, while the incrementation in the magnetic interaction parameter improves the heat transfer of the nanofluid.