4.7 Article

Heat transfer analysis of tangent hyperbolic nanofluid in a ciliated tube with entropy generation

Journal

JOURNAL OF THERMAL ANALYSIS AND CALORIMETRY
Volume 144, Issue 6, Pages 2337-2346

Publisher

SPRINGER
DOI: 10.1007/s10973-021-10681-x

Keywords

Heat transfer; Ciliated tube; Tangent hyperbolic fluid; Nanoparticles; Entropy generation

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This study investigates the impact of heat transfer on the flow of tangent hyperbolic nanofluid in a ciliated tube, exploring its benefits for embryology research and medical experts. It highlights the use of nanoparticles in removing cysts from the fallopian tube and the reduction of entropy generation due to ciliary movement. The research discusses the optimization of energy through heat transfer and the influence of various parameters on velocity, temperature, and entropy generation in the system.
In this paper, we analyze the effect of heat transfer on the flow of tangent hyperbolic nanofluid in a ciliated tube (fallopian tube where embryo in blood make the development). This study will be beneficial for the researchers and medical experts in the field of embryology. The nanoparticles are beneficial to remove the cysts from the fallopian tube where development of embryo takes place. To resolves the ciliary flow problems, medical doctors use nanoparticles (drug delivery) that may create a temperature gradient. The heat transfer helps to optimize the energy for which the entropy generation is reduced. Therefore, in this research we discuss the heat transfer effect on tangent hyperbolic nanofluid and entropy generation due to ciliary movement. The governing partial differential equations are solved by HPM and software MATHEMATICA (TM). Effect of viscoelastic parameter, nanoparticles, cilia length and Brinkman number on the velocity, temperature and entropy generation has been illustrated with the help of graphs. Graphical results show that thermal conductivity of fluid increases by adding nanoparticles. The entropy generation due to nanoparticles will decrease the viscosity near the tube wall and blood through tube will flow with normal pressure.

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