This paper discusses two thermal effects of crystallization, which may be of interest for the community of molecular dynamics modelers. The first effect deals with the problem of motion of a plane interface in the system with internal cooling. It provides a simple recipe for identification of the kinetic coefficient of growth as a function of the measurable quantities, which does not require direct measurement of the interfacial temperature during the crystallization. The second effect deals with a heat-trapping effect, which consists in the crystallization of a solid phase from the supercooled liquid when the temperature of the crystallized solid is above the melting point
Kinetics of crystal growth in undercooled melts is analyzed by methods of theoretical modeling. Spec...
Boundary conditions for the solid–liquid interface of the solidifying pure melt have been derived. I...
We discuss crystallization as a non-equilibrium process. In a system of hard spheres under compressi...
The theory of motion of the solid/liquid interface in a supercooled melt is developed. Crystal nucle...
The crystallization mechanism of pure water in a supercooled state is not well understood so far. Th...
In this paper, we develop a theory of solid/liquid phase interface motion into an undercooled melt i...
An expression for the velocity u of migration of a diffuse simple crystal-melt interface has been de...
Dynamical Ginzburg–Landau theory is applied to the study of thermal effects of motion of interfaces ...
All the stages of phase transformations in materials, nucleation, growth, and coarsening, are subjec...
In the theoretical treatment of crystallization, it is commonly assumed that the relaxation processe...
Crystal growth from the melt of n-pentacontane (C50) was studied by molecular dynamics simulation. Q...
A theory for crystal nucleation and growth with the recalescence front is developed. The theory is b...
A molecular-level insight into phase transformations is in great demand for many molecular systems. ...
This is the publisher's version, also available electronically from http://scitation.aip.org/content...
This is the final version of the article. Available from AIP Publishing via the DOI in this record.T...
Kinetics of crystal growth in undercooled melts is analyzed by methods of theoretical modeling. Spec...
Boundary conditions for the solid–liquid interface of the solidifying pure melt have been derived. I...
We discuss crystallization as a non-equilibrium process. In a system of hard spheres under compressi...
The theory of motion of the solid/liquid interface in a supercooled melt is developed. Crystal nucle...
The crystallization mechanism of pure water in a supercooled state is not well understood so far. Th...
In this paper, we develop a theory of solid/liquid phase interface motion into an undercooled melt i...
An expression for the velocity u of migration of a diffuse simple crystal-melt interface has been de...
Dynamical Ginzburg–Landau theory is applied to the study of thermal effects of motion of interfaces ...
All the stages of phase transformations in materials, nucleation, growth, and coarsening, are subjec...
In the theoretical treatment of crystallization, it is commonly assumed that the relaxation processe...
Crystal growth from the melt of n-pentacontane (C50) was studied by molecular dynamics simulation. Q...
A theory for crystal nucleation and growth with the recalescence front is developed. The theory is b...
A molecular-level insight into phase transformations is in great demand for many molecular systems. ...
This is the publisher's version, also available electronically from http://scitation.aip.org/content...
This is the final version of the article. Available from AIP Publishing via the DOI in this record.T...
Kinetics of crystal growth in undercooled melts is analyzed by methods of theoretical modeling. Spec...
Boundary conditions for the solid–liquid interface of the solidifying pure melt have been derived. I...
We discuss crystallization as a non-equilibrium process. In a system of hard spheres under compressi...