Exploring stream patterns of titania-CNTs blended blood in a squeezed artery subject to electro-magnetization, Hall and ion-slip currents.

Exploring electrokinetics phenomena in the context of diverse currents and nanoparticle blends introduces the possibility of novel biomedical approaches. This research is aimed at exploring the streaming patterns of electro-magnetized blood infused with titanium dioxide nanoparticles and single-walled carbon nanotubes (SWCNTs) in a squeezed arterial channel under the influence of electroosmosis. The model is deliberated through the imposition of an intense external magnetic field that is aligned perpendicular to the channel, resulting in effects such as Hall and ion-slip currents and Joule warming. The distribution of electric potential within the electric double layer (EDL) is predicted by solving the Poisson–Boltzmann equation. The Runge–Kutta–Fehlberg (RKF45) shooting scheme via bvp4c solver in Mathematica is hired to execute the proposed blood flow model computation. By presenting informative graphs and tables, a study is carried out to comprehend and elucidate the physical effects of crucial factors on flow dynamical features and physical quantities. A statistical analysis is carried out to identify the intricate association of model parameters with physical flow characteristics, enriching the study’s novelty. Some key outcomes are that the blood temperature attenuates with swilling values of Hall and ion slip parameters. The skin friction on the artery’s upper wall is lessened when the electroosmosis parameter gets increase. Expanding volume fraction of nanoparticles results in an elevation of the Nusselt number on the upper wall. In squeezed artery, the streamlines in the blood flow are notably aligned. The study’s findings could contribute to improving drug delivery strategies, diagnostics, medical imaging, patient care, treatment outcomes, design of biomedical devices, such as stents and catheters, and understanding of blood flow behavior in intricate arterial configurations. [ABSTRACT FROM AUTHOR]