Exploring the heat transfer aspects of thermally conductive electromagnetic material induced by rotatory swirling motion

The higher thermal conductive materials have a wide range of applications in biomedical and engineering field. In particular, those areas where many materials required enough amount of energy to continue smooth processing. By keeping in view such uses, a theoretical analysis in this work is presented. However, the physical and chemical composition of the shear thinning liquid is noticeably affected by the inclusion of nanoparticles. Continuing the more assumption, the impacts of Lorentz forces, chemical reaction and heat generation/absorption are integrated in this study. Moreover, the dynamics of the materials are assumed unsteady and slippery. The bounded flow nature of the composite material is effectively examined for low and high Reynolds numbers. For compact analysis, the newly stated problem is configured through a dimensionless set of mathematical equation. These higher non-linear equations are representing the flow speed, thermal and mass balances. A customized built-in formula is employed to numerically solve the equations. Results of the newly proposed problem are presented through material temperature, speed, concentration, surface forces, and rate of mass and heat flows. Since, the reduction in the flow speed was noticed various the higher slip factor. Stretching of both disks created a reduction in the speed of the material. Thermophoresis and Brownian motion are caused higher temperature. The larger unsteadiness and chemical reaction factors uplifted the material concentration. The method is tested for accuracy by providing a well-matched comparison.

Abstract licence: CC BY-NC

30 more references, whose wording the paper’s licence keeps private.

A person counts once a day per paper. We keep no cookie and no address: a reader is a hash that changes every day. Any month under five reads shows no number.