The understanding of the transient behavior of the natural convection boundary layer on a heated vertical solid surface is crucial for numerous applications. In this study, scaling analysis is performed to derive the scaling laws for the major parameters that characterize the transient behavior of natural convection boundary layer of a Prandtl number larger than 1 fluid on a vertical solid surface subject to a sinusoidal heating flux in a linearly stratified ambient. It is found that the developed scaling laws are in good agreement with the direct numerical simulation results over wide ranges of Prandtl number, stratification parameter, and frequency of the sinusoidal heat flux
Natural convection thermal boundary layer adjacent to an instantaneous heated inclined flat plate is...
An improved scaling analysis and direct numerical simulations are performed for the unsteady natural...
The transient natural convection boundary-layer flow adjacent to a vertical plate heated with a time...
The understanding of the transient behavior of the natural convection boundary layer on a heated ver...
The understanding of the transient behavior of the natural convection boundary layer on a heated ver...
The unsteady natural convection boundary layer (NCBL) on a vertical wall heated by time varying flux...
The unsteady natural convection boundary layer (NCBL) on a vertical wall heated by time varying flux...
The unsteady natural convection boundary layer (NCBL) on a vertical wall heated by time varying flux...
It is of fundamental significance, especially with regard to application, to fully understand the fl...
It is of fundamental significance, especially with regard to application, to fully understand the fl...
An improved scaling analysis and direct numerical simulations are performed for the unsteady natural...
A new scaling analysis has been performed for the unsteady natural convection boundary layer under a...
The natural convection thermal boundary layer adjacent to an abruptly heated inclined flat plate is ...
It is found in the literature that the existing scaling results for the boundary layer thickness, ve...
The natural convection thermal boundary layer adjacent to an abruptly heated inclined flat plate is ...
Natural convection thermal boundary layer adjacent to an instantaneous heated inclined flat plate is...
An improved scaling analysis and direct numerical simulations are performed for the unsteady natural...
The transient natural convection boundary-layer flow adjacent to a vertical plate heated with a time...
The understanding of the transient behavior of the natural convection boundary layer on a heated ver...
The understanding of the transient behavior of the natural convection boundary layer on a heated ver...
The unsteady natural convection boundary layer (NCBL) on a vertical wall heated by time varying flux...
The unsteady natural convection boundary layer (NCBL) on a vertical wall heated by time varying flux...
The unsteady natural convection boundary layer (NCBL) on a vertical wall heated by time varying flux...
It is of fundamental significance, especially with regard to application, to fully understand the fl...
It is of fundamental significance, especially with regard to application, to fully understand the fl...
An improved scaling analysis and direct numerical simulations are performed for the unsteady natural...
A new scaling analysis has been performed for the unsteady natural convection boundary layer under a...
The natural convection thermal boundary layer adjacent to an abruptly heated inclined flat plate is ...
It is found in the literature that the existing scaling results for the boundary layer thickness, ve...
The natural convection thermal boundary layer adjacent to an abruptly heated inclined flat plate is ...
Natural convection thermal boundary layer adjacent to an instantaneous heated inclined flat plate is...
An improved scaling analysis and direct numerical simulations are performed for the unsteady natural...
The transient natural convection boundary-layer flow adjacent to a vertical plate heated with a time...