Casson Flow of Blood Containing Au and Ta Nanoparticles Over a Stenotic Artery
Abstract
Computational fluid dynamics focuses a premium on investigations of blood flow via narrowed arteries due to the relevance of these issues to biological investigations. The main goal of this study is to find out how nanoparticles affect blood flow via a constricted artery. As part of our investigation into the theoretical flow scenario, we examine the significance of Casson nanofluid movement via a cardiac artery. By using the suitable delf similarity variables the PDEs transformed into ODEs. Following that, the dimensionless equations are handled employing the MATLAB computer program in the Bvp5c method. The magnetic properties of the blood flow cells were investigated by increasing the magnetic field parameter, which resulted in a reduction in blood flow as predicted. The movement trend reduced when the Casson liquid parameter increased. To improve the transmission of heat efficiency, the concentration of gold particles in the constricted artery should be increased. One may argue that iron nanoparticles are useful for delivering medications. Presently available methods may be useful for distributing drugs throughout the circulatory system. The theoretical consequences of this medication delivery method are presented in a manner that is made easier by the utilization of an illustration representation
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