Journal
JOURNAL OF MAGNETISM AND MAGNETIC MATERIALS
Volume 569, Issue -, Pages -Publisher
ELSEVIER
DOI: 10.1016/j.jmmm.2023.170443
Keywords
Tetra hybrid nanofluid; Cross fluid; Viscous dissipation; Bvp4c; Joules heating; Tiwari and Das model; Nonlinear thermal radiation
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Researchers investigate the influence of non-Newtonian fluids and mono and dihybrid nanoparticles on blood flow in arteries to study heat transfer for disease treatment. They examine the effect of a novel tetra hybrid nanofluid model on blood flow with a Cross non-Newtonian fluid model. Heat transfer assessment is conducted considering factors like heat source/sink, viscous dissipation, Joules heating, and non-linear thermal radiation. Numerical and graphical analysis is performed to study velocity, temperature, wall friction, and heat transfer rate.
Researchers around the planet are attempted to explore the influence of various non-Newtonian fluids with the mono and dihybrid nanoparticles in the status of blood flowing arteries to investigate the heat transference aspect for the cure of various diseases. Current examination is created to investigate the effect of extended novel tetra hybrid Tiwari and Das nanofluid model on blood flow arteries with consideration of Cross non-Newtonian fluid model. Heat transference assessment has been taken with the insertion of impacts like heat source/sink, viscous dissipation, Joules heating as well as nonlinear thermal radiation. PDE are designed to investigate the momentum of blood flowing and temperature analysis. The governing PDE are converted into ODE with the application of similarity conversions and furthermore managed these ODE numerically with the utilization of MATLAB builtin bvp4c scheme. The obtained outcomes are studied numerically as well as graphically in the case of diverse dimensionless variables ranges between 0.5 <= M <= 2, 0.1 <= We <= 4, 0.1 <= n <= 1.5, 0.1 <= gamma <= 2, 0.5 <= Rd <= 2, 19 <= Pr <= 22, 0.1 <= theta w <= 1.5, 0.1 <= Ec <= 2.1, 0.5 <= U <= 2, 0.5 <= W <= 2 versus velocity, temperature, wall frictional factor and heat transition rate. From obtained outcomes it is reflected that the surface drag phenomenon weakens by the boost of a Weissenberg number and an increment variation in magneto force provides a resistance against the fluid flow. Temperature within the arteries intensifies by the advantage of a thermal radiation and viscous dissipation.
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