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JOURNAL OF APPLIED AND COMPUTATIONAL MECHANICS

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Manuscript Title: Heat transfer analysis of 2D steady laminar mixed convection,
CNTs blood base nanofluid together a perpendicular, stretching sheets

Abstract:
In this research work, the heat transfer properties of a blood-based carbon
nanotube (CNT) steady laminar mixed convection flow over perpendicular stretched
sheets are studied. The blood-based nanofluid's unique thermal properties
brought about by the CNTs make it a useful medium for improving heat transfer in
biomedical applications. The governing equations of the momentum, energy, and
flow equations are transformed into a set of nonlinear ordinary differential
equations by applying the proper similarity transformations. The resulting
equations are then solved analytically using the homotopy analysis method (HAM).
Numerous significant factors are investigated, and their impact on the
temperature and velocity patterns is examined. The investigation also takes into
account the skin friction coefficient and Nusselt number. The results
demonstrate that adding CNTs significantly raises heat transfer efficiency,
which enhances cooling in biological domains. This study adds to our knowledge
of the enhancement of heat transmission in blood-based nanofluids with carbon
nanotubes and offers important new information for the development and
improvement of thermal control systems in biomedical engineering. Furthermore,
the results of this investigation can be applied to the creation of novel
approaches to raise the effectiveness of cooling devices and heat exchangers in
medical applications. This paper presents a theoretical basis for more research
in this field and delivers insightful information about the heat transport
properties of blood-based nanofluids in biomedical engineering applications.

Keywords: Mathematica software, stretching surface, HAM



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