Abstract

The current study provides a detailed analysis of steady two-dimensional incompressible and electrically conducting magnetohydrodynamic flow of a couple stress hybrid nanofluid under the influence of Darcy–Forchheimer, viscous dissipation, joule heating, heat generation, chemical reaction, and variable viscosity. The system of partial differential equations of the current model (equation of motion, energy, and concentration) is converted into a system of ordinary differential equations by adopting the suitable similarity practice. Analytically, homotopy analysis method (HAM) is employed to solve the obtained set of equations. The impact of permeability, couple-stress and magnetic parameters on axial velocity, mean critical reflux condition and mean velocity on the channel walls are discussed in details. Computational effects show that the axial mean velocity at the boundary has an inverse relation with couple stress parameter while the permeability parameter has a direct relation with the magnetic parameter and vice versa. The enhancement in the temperature distribution evaluates the pH values and electric conductivity. Therefore, the SWCNTs,,{text{and}},,MWCNTs hybrid nanofluids are used in this study for medication purpose.

Highlights

  • The current study provides a detailed analysis of steady two-dimensional incompressible and electrically conducting magnetohydrodynamic flow of a couple stress hybrid nanofluid under the influence of Darcy–Forchheimer, viscous dissipation, joule heating, heat generation, chemical reaction, and variable viscosity

  • The structures of nanoparticles consist of metal oxide, carbide, nitride and carbon tubes (SWCNT-MWCNT) etc

  • The variable viscosity concept was used by the researchers in the blood flow containing nanomaterials

Read more

Summary

Introduction

The current study provides a detailed analysis of steady two-dimensional incompressible and electrically conducting magnetohydrodynamic flow of a couple stress hybrid nanofluid under the influence of Darcy–Forchheimer, viscous dissipation, joule heating, heat generation, chemical reaction, and variable viscosity. Its higher thermal capability has diverted many researchers towards the study of nanofluids This thermal conductivity property of nanofluids, distinguishes it from other fluids making it an important product for industrial sector including biomedicine, transportation, electronics, foods and nuclear reactors. The size of these nanoparticles is very small up to (1–100 nm) which enhanced the conductivity of the basic fluids upon addition. Contributions on the topic of nanofluid flow under different conditions are depicted in the a­ rticles[14,15,16,17,18]

Objectives
Discussion
Conclusion
Full Text
Published version (Free)

Talk to us

Join us for a 30 min session where you can share your feedback and ask us any queries you have

Schedule a call