Boundary conditions for the solid–liquid interface of the solidifying pure melt have been derived. In the derivation the model of Gibbs interface is used. The boundary conditions include both the state quantities of bulk phases are taken at the interface and the quantities characterizing interfacial surface such as the surface temperature and the surface heat flux. Introduction of the surface temperature as an independent variable allows us to describe the scattering energy at the interface. For the steady-state motion of the planar interface the expression for the temperature discontinuity across the phase boundary has been obtained. Effect of Kapitza resistance on the interface velocity is considered. It is shown that heat resistance lead...
We critically readdress the definition of thermal boundary resistance at an interface between two se...
Solidification of a pure hypercooled melt is studied in the case where heat diffusion is localized w...
In this paper, we develop a theory of solid/liquid phase interface motion into an undercooled melt i...
We perform computational experiments using nonequilibrium molecular dynamics simulations, showing th...
We perform computational experiments using nonequilibrium molecular dynamics simulations, showing th...
We perform computational experiments using nonequilibrium molecular dynamics simulations, showing th...
We perform computational experiments using nonequilibrium molecular dynamics simulations, showing th...
We perform computational experiments using nonequilibrium molecular dynamics simulations, showing th...
Significant melt undercooling may be developed in the melt in front of the solid/liquid interface du...
An investigation is made of the stability of the shape of a moving planar interface between the soli...
This paper examines a model for coupled heat and mass transfer for freezing in a porous media with D...
This paper examines a model for coupled heat and mass transfer for freezing in a porous media with D...
This paper examines a model for coupled heat and mass transfer for freezing in a porous media with D...
We investigate evolution of a planar interface during unstable solidification of a pure undercooled ...
This paper examines a model for coupled heat and mass transfer for freezing in a porous media with D...
We critically readdress the definition of thermal boundary resistance at an interface between two se...
Solidification of a pure hypercooled melt is studied in the case where heat diffusion is localized w...
In this paper, we develop a theory of solid/liquid phase interface motion into an undercooled melt i...
We perform computational experiments using nonequilibrium molecular dynamics simulations, showing th...
We perform computational experiments using nonequilibrium molecular dynamics simulations, showing th...
We perform computational experiments using nonequilibrium molecular dynamics simulations, showing th...
We perform computational experiments using nonequilibrium molecular dynamics simulations, showing th...
We perform computational experiments using nonequilibrium molecular dynamics simulations, showing th...
Significant melt undercooling may be developed in the melt in front of the solid/liquid interface du...
An investigation is made of the stability of the shape of a moving planar interface between the soli...
This paper examines a model for coupled heat and mass transfer for freezing in a porous media with D...
This paper examines a model for coupled heat and mass transfer for freezing in a porous media with D...
This paper examines a model for coupled heat and mass transfer for freezing in a porous media with D...
We investigate evolution of a planar interface during unstable solidification of a pure undercooled ...
This paper examines a model for coupled heat and mass transfer for freezing in a porous media with D...
We critically readdress the definition of thermal boundary resistance at an interface between two se...
Solidification of a pure hypercooled melt is studied in the case where heat diffusion is localized w...
In this paper, we develop a theory of solid/liquid phase interface motion into an undercooled melt i...