AbstractThis article presents non-similarity solutions to study the influence of thermal and mass stratification on mixed convection over a vertical flat plate immersed in a Newtonian fluid saturated non-Darcy porous medium. The model for the flow in the porous medium is characterized by the Darcy-Forchheimer model. The governing equations are first transformed into a dimensionless form by the non-similar transformation and then solved numerically using the Keller-box method. The significance of thermal, mass stratification parameters and mixed convection parameter on dimensionless velocity, temperature, concentration, heat and mass transfer rates are presented graphically
This paper attempted a numerical examination of the problem of unsteady free convection with heat an...
This paper attempted a numerical examination of the problem of unsteady free convection with heat an...
This work reports the study of mixed convection of permeable fluid with Robin conditions in the vert...
AbstractThis article presents non-similarity solutions to study the influence of thermal and mass st...
AbstractThis article explores the numerical solution of mixed convection heat transfer in incompress...
An improved numerical study on mixed convection from a heated vertical plate embedded in a Newtonian...
AbstractThis paper studies mixed convection, double dispersion and chemical reaction effects on heat...
AbstractThis paper investigates the influence of thermophoresis on mixed convection heat and mass tr...
In this paper, the Soret and Dufour effects on the steady, laminar mixed convection heat and ma...
AbstractIn this paper, the dispersion effects and variable properties on mixed convection over verti...
An analysis is performed for mixed convective flow through a fluid-saturated porous medium adjacent ...
This article considers the problem of mixed convection stagnation-point flow towards a vertical plat...
AbstractThe present study is to investigate the influence of the variable properties and double disp...
AbstractThe results of mixed convective heat and mass transfer flow along a wavy surface in a Darcy ...
This paper attempted a numerical examination of the problem of unsteady free convection with heat an...
This paper attempted a numerical examination of the problem of unsteady free convection with heat an...
This paper attempted a numerical examination of the problem of unsteady free convection with heat an...
This work reports the study of mixed convection of permeable fluid with Robin conditions in the vert...
AbstractThis article presents non-similarity solutions to study the influence of thermal and mass st...
AbstractThis article explores the numerical solution of mixed convection heat transfer in incompress...
An improved numerical study on mixed convection from a heated vertical plate embedded in a Newtonian...
AbstractThis paper studies mixed convection, double dispersion and chemical reaction effects on heat...
AbstractThis paper investigates the influence of thermophoresis on mixed convection heat and mass tr...
In this paper, the Soret and Dufour effects on the steady, laminar mixed convection heat and ma...
AbstractIn this paper, the dispersion effects and variable properties on mixed convection over verti...
An analysis is performed for mixed convective flow through a fluid-saturated porous medium adjacent ...
This article considers the problem of mixed convection stagnation-point flow towards a vertical plat...
AbstractThe present study is to investigate the influence of the variable properties and double disp...
AbstractThe results of mixed convective heat and mass transfer flow along a wavy surface in a Darcy ...
This paper attempted a numerical examination of the problem of unsteady free convection with heat an...
This paper attempted a numerical examination of the problem of unsteady free convection with heat an...
This paper attempted a numerical examination of the problem of unsteady free convection with heat an...
This work reports the study of mixed convection of permeable fluid with Robin conditions in the vert...