IMPACT OF MAGNETO-HYDRODYNAMICS AND HEAT SOURCE/SINK ON TERNARY HYBRID CARREAU BIO-NANOFLUID FLOW WITH HOMOGENEOUS–HETEROGENEOUS CHEMICAL REACTIONS

Applications: The incorporation of space and temperature-based heat source/sink bio-nanofluids in biology and the field of medicine holds transformative potential. Combined biological elements with nanotechnology have many applications like hyperthermia treatment, heat distribution, targeted therapy and minimizing damage to tissues. Purpose: This paper includes the investigation of space and temperature-based heat source/sink of Carreau bio-nanofluid flow with homogeneous–heterogeneous chemical reactions. In this study, the Carreau nanofluid mathematical model has been used. Inclined and orthogonal magnetic field effects are also considered for inspection of velocity and temperature eprofile. Methodology: Transformations based on geometry are launched to convert the partial differential equations (PDEs) into ordinary differential equations (ODEs). Bvp4c numerical Matlab program is used to fetch the solution. Findings: A space and temperature-based heat sink/source parameter augments the thermal profile of the blood flow. An intensified heterogeneous/homogeneous reaction parameter accelerates the rate of chemical reactions, potentially modulating the hemodynamic characteristics.