Investigation on laminar free convection heat transfer from vertical cylinders and wires having a surface temperature variation of the form TW - T∞ = M emx are presented. As in Part I for power law surface temperature variation, the axisymmetric boundary layer equations of mass, momentum and energy are transformed to more convenient forms and solved numerically. The second approximation refines the results of the first upto a maximum of only 2%. Analysis of the results indicates that cylinders can be classified into the same three categories as in Part I, namely, short cylinders, long cylinders, and wires, heat transfer and fluid flow correlations being developed for each case
Mixed convection in laminar boundary layer flow along slender vertical cylinders is analyzed for the...
ABSTRACT For laminar flows over slender cylinders, the boundary-layer equations do not admit similar...
free convection heat transfer from an isothermal horizontal cylinder was first solved by Hermann [1]...
Investigation on laminar free convection heat transfer from vertical cylinders and wires having a su...
This paper reports on the investigations of laminar free convection heat transfer from vertical cyli...
This report gives an account of a literature study on free convection boundary layer along a heated ...
Free convection heat transfer from vertical long cylinders and wires were investigated experimentall...
This report serves as a numerical analysis and literature review for free convection heat transfer a...
This report describes a numerical study of free convection along a vertical cylinder. It aims to inv...
Laminar free-convection flow produced by a heated, vertical, circular cylinder for which the tempera...
Over the past few decades, there has been numerous and extensive studies conducted on free convect...
Free convection heat transfer in vertical concentric, cylindrical annuli is investigated analyticall...
Radial curvature effects on axisymmetric free convection boundary-layer flow are investigated for ve...
Convective heat and mass transfer is one of the most important topics of study in physics and engine...
Steady laminar free convection from flat vertical arrays of equally-spaced, horizontal isothermal cy...
Mixed convection in laminar boundary layer flow along slender vertical cylinders is analyzed for the...
ABSTRACT For laminar flows over slender cylinders, the boundary-layer equations do not admit similar...
free convection heat transfer from an isothermal horizontal cylinder was first solved by Hermann [1]...
Investigation on laminar free convection heat transfer from vertical cylinders and wires having a su...
This paper reports on the investigations of laminar free convection heat transfer from vertical cyli...
This report gives an account of a literature study on free convection boundary layer along a heated ...
Free convection heat transfer from vertical long cylinders and wires were investigated experimentall...
This report serves as a numerical analysis and literature review for free convection heat transfer a...
This report describes a numerical study of free convection along a vertical cylinder. It aims to inv...
Laminar free-convection flow produced by a heated, vertical, circular cylinder for which the tempera...
Over the past few decades, there has been numerous and extensive studies conducted on free convect...
Free convection heat transfer in vertical concentric, cylindrical annuli is investigated analyticall...
Radial curvature effects on axisymmetric free convection boundary-layer flow are investigated for ve...
Convective heat and mass transfer is one of the most important topics of study in physics and engine...
Steady laminar free convection from flat vertical arrays of equally-spaced, horizontal isothermal cy...
Mixed convection in laminar boundary layer flow along slender vertical cylinders is analyzed for the...
ABSTRACT For laminar flows over slender cylinders, the boundary-layer equations do not admit similar...
free convection heat transfer from an isothermal horizontal cylinder was first solved by Hermann [1]...