You are in:Home/Publications/Thermal features and heat transfer enhancement of a Casson fluid across a porous stretching/shrinking sheet: Analysis of dual solutions

Dr. Mostafa Abdel-mohimen Hussein :: Publications:

Title:
Thermal features and heat transfer enhancement of a Casson fluid across a porous stretching/shrinking sheet: Analysis of dual solutions
Authors: M. Riaz Khan , Mohamed Abdelghany Elkotb , R.T. Matoog , Nawal A. Alshehri , Mostafa A.H. Abdelmohimen
Year: 2021
Keywords: Casson fluid Heat source Stretching/Shrinking sheet Thermal radiation MHD Convective condition
Journal: Case Studies in Thermal Engineering
Volume: 28
Issue: 101594
Pages: 1-12
Publisher: ELSEVIER
Local/International: International
Paper Link:
Full paper Mostafa Abdel-mohimen Hussein _Thermal features and heat transfer enhancement of a Casson fluid-2021.pdf
Supplementary materials Not Available
Abstract:

This article explores an unsteady radiative two-dimentional stagnation point flow of a Casson fluid along a stretching and shrinking sheet which is depending on the mixed convection, convective condition, and the slip condition. Additionally, the effect of heat generation and Joule heating is deemed. This study formulates the nonlinear Partial Differential Equations (PDEs), that are initially transformed into the non-dimensional Ordinary Differential Equations (ODEs) based on the dimensionless variables. The bvp4c function in MATLAB has been employed to find the dual solutions for the dimensionless ODEs. These solutions have been determined with regards to the fluid velocity, skin friction coefficient, temperature, and the local Nusselt number which have been found under the influence of the related fluid parameters. It has been found that the friction drags respectively enhances and declines in the stable and unstable flows caused by rising values of Casson parameter, mixed convection, and slip parameter. The heat transfer rate respectively improves with the improvement of radiation, Biot number and Prandtl number although it declines with the improvement of heat generation parameter. According to our deep knowledge, the outcomes of the existing effort are innovative and had not been previously evaluated by someone. Our work can produce a paradigm considering forthcoming analyses of non-Newtonian fluids.

Google ScholarAcdemia.eduResearch GateLinkedinFacebookTwitterGoogle PlusYoutubeWordpressInstagramMendeleyZoteroEvernoteORCIDScopus