Magnetohydrodynamic flow of Maxwell nanofluid with binary chemical reaction and Arrhenius activation energy

The present paper addresses magnetohydrodynamics flow of Maxwell nanofluid due to stretching cylinder. To visualize the stimulus of Brownian movement and thermophoresis phenomena on Maxwell nanofluid, Buongiorno’s relation has been accounted. Moreover, heat source/sink, thermal radiation and convect...

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Bibliographic Details
Published in:Applied nanoscience 2020-08, Vol.10 (8), p.2951-2963
Main Authors: Rashid, Madiha, Alsaedi, Ahmed, Hayat, Tasawar, Ahmed, Bashir
Format: Article
Language:English
Subjects:
Activation energy
Algorithms
Biot number
Brownian motion
Chemical reactions
Chemistry and Materials Science
Computational fluid dynamics
Cylinders
Fluid flow
Magnetohydrodynamic flow
Magnetohydrodynamics
Mass transfer
Materials Science
Membrane Biology
Nanochemistry
Nanofluids
Nanoparticles
Nanotechnology
Nanotechnology and Microengineering
Nonlinear systems
Organic chemistry
Original Article
Parameters
Thermal radiation
Thermophoresis
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Summary:The present paper addresses magnetohydrodynamics flow of Maxwell nanofluid due to stretching cylinder. To visualize the stimulus of Brownian movement and thermophoresis phenomena on Maxwell nanofluid, Buongiorno’s relation has been accounted. Moreover, heat source/sink, thermal radiation and convective condition are also attended. Mass transfer is studied by taking activation energy along with binary chemical reaction. Homotopic algorithm is adopted for the computational process of nonlinear differential systems. Five quantities, namely velocity, temperature, concentration and local Nusselt and Sherwood numbers are discussed. It is concluded that curvature parameter enhances for velocity, temperature and concentration fields. Temperature of fluid rises for radiation parameter and thermal Biot number. Clearly concentration of nanoparticles enhances with activation energy while it reduces with chemical reaction parameter. Heat transfer enhances while mass transfer rate reduces for Brownian movement and thermophoresis parameter.
ISSN:2190-5509
2190-5517
DOI:10.1007/s13204-019-01143-w