A Comparative Investigation of Swirling Hybrid Nanofluid Flow Induced by a Moving Cylinder

ABSTRACT

The current study investigates the flow characteristics and heat transport using nanoparticles, which enhance the thermo‐physical properties of the base fluid. In sectors including energy storage, chemical processing, and electronics cooling, thermal management is essential for efficient heat control and reducing energy loss. This study focuses on the viscous dissipation in the swirling flow of hybrid nanofluids () on a stretched cylinder. The influences of thermal radiation and heat source are also incorporated. Base fluid (ethylene glycol ) is enhanced with copper () and titanium dioxide () nanoparticles. A mechanism of partial differential equations can be transformed into an ordinary differential equation by applying a resemblance modification. The MATLAB built‐in algorithm bvp4 is utilized to numerically address the transformed nondimensional nonlinear ordinary differential equations. The physical insights of pertinent factors concerning velocity and temperature profiles are studied as tabular data as well as graphical illustrations. In medical biosensor and thermal management technologies, these findings provide valuable insight into trade off can help to optimize the design of more efficient cooling mechanisms.