Analysis Of Hydromagnetic Hybrid Nano Fluid Flow With Iron(Ii)Oxide And Iron(Iii)Oxide Suspension In Human Blood
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Abstract
Hybrid nanofluids represent a new class of materials engineered by suspending multiple nanoparticle types within a base liquid. These fluids offer advanced thermal performance, making them highly valuable for
cooling nuclear reactors and improving manufacturing equipment. Their relevance extends into medicine, too. Researchers explore them for drug delivery, cancer therapy, nanoscale surgery, and even biomedical imaging. This project focuses on the motion of a hydromagnetic hybrid nanofluid composed of FeO and Fe₂O₃ particles suspended in human blood. To study the system, I first transform the governing nonlinear equations and boundary conditions into dimensionless form using similarity techniques. The resulting
equations are then solved numerically with the Runge-Kutta-Gill scheme. MATLAB’s bvp4c solver is then employed to simulate how parameters influence velocity, skin friction, and heat transfer rate
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