Characteristics of Modified Diffusion Analysis of Squeezed Hydro-magnetic Nanofluid Flow
Shabir Ahmad, Samreen Sheriff, Muhammad Umar FAROOQ
Abstract
Shabir Ahmad, Samreen Sheriff, Muhammad Umar FAROOQ
Abstract
This communication based on nanofluid theory is exhibited to study the squeezing mechanism. Hydro-magnetic phenomenon is incorporated in the analysis of nanofluid flow. The flow of heat and mass transport is interpreted by the constitutive relationship of modified diffusion model which overcomes the deficiencies in Fourier’s and Fick’s classical theories. The nano-fluid theory also incorporates the features of two important slip mechanisms namely Brownian diffusion and thermophoresis. Resulting heat and mass transport problems are figure out to develop the series solutions. Interval of convergence is established for computed series solutions. Behavior of emerging parameters in flow distributions are graphed and discussed. The major founds in this attempt is that higher Brownian diffusion strengthens the both heat and mass fluxes, while larger thermophoresis parameter enhances the heat flux but it weakens the mass flux. Moreover, both heat and mass flow field decays for enlarge estimation of thermal and solutal time relaxation parameters, respectively. Velocity field shows dual behavior for dominant magnetic parameter.
OpenAlex reports 6 citations for this work. Citation counts describe recorded attention and do not establish research quality.
A contribution statement is not available in the OpenAlex record.
Method details are not available in the OpenAlex metadata.
Findings are not separately available in the OpenAlex metadata.
Limitations are not available in the OpenAlex metadata.
Application details are not available in the OpenAlex metadata.
This communication based on nanofluid theory is exhibited to study the squeezing mechanism. Hydro-magnetic phenomenon is incorporated in the analysis of nanofluid flow. The flow of heat and mass transport is interpreted by the constitutive relationship of modified diffusion model which overcomes the deficiencies in Fourier’s and Fick’s classical theories. The nano-fluid theory also incorporates the features of two important slip mechanisms namely Brownian diffusion and thermophoresis. Resulting heat and mass transport problems are figure out to develop the series solutions. Interval of convergence is established for computed series solutions. Behavior of emerging parameters in flow distributions are graphed and discussed. The major founds in this attempt is that higher Brownian diffusion strengthens the both heat and mass fluxes, while larger thermophoresis parameter enhances the heat flux but it weakens the mass flux. Moreover, both heat and mass flow field decays for enlarge estimation of thermal and solutal time relaxation parameters, respectively. Velocity field shows dual behavior for dominant magnetic parameter.
Key concepts: Thermophoresis, Nanofluid, Mass flux, Brownian motion, Diffusion, Flow (mathematics), Materials science, Heat flux