A generalized Stefan problem which includes surface tension is presented as a mathematical model for the growth and melting of a solid. It is shown that planar melting is linearly morphologically stable with or without surface tension, while planar solidification is unstable without surface tension and is stabilized with its inclusion. The technique used is an adaptation to this situation of Rubinstein's recent work on the one-dimensional, two-phase problem without surface tension. 1
Abstract. We consider a one-dimensional two-phase Stefan problem, modeling a layer of solid material...
The thermodynamic analysis of the morphological stability of a planar solidification front during th...
The classical Stefan problem is a linear onedimensional heat equation with a free boundary at one en...
AbstractWe present a numerical treatment of a generalized two-dimensional Stefan problem which model...
Understanding the solidification process of a binary alloy is important if one is to control the mic...
We treat two related moving boundary problems. The first is the ill-posed Stefan problem for meltin...
The problem of melting a crystal dendrite is modeled as a quasi-steady Stefan problem. By employing ...
The addition of surface tension to the classical Stefan problem for melting a sphere causes the solu...
Contact melting is the process during which a phase change material is placed in contact with a subs...
A two-dimensional Stefan problem is usually introduced as a model of solidification, melting or subl...
We develop a framework for a {\em unified} treatment of well-posedness for the Stefan problem with a...
The stability of flat interfaces with respect to a spatial semidiscretization of a solidification mo...
Solidification processes are crucial for many industrial applications, and understanding these proce...
AbstractWe consider a one-dimensional two-phase Stefan problem, modeling a layer of solid material f...
We present a one-phase quasi-steady Stefan problem with Gibbs-Thomson and the kinetic effects when t...
Abstract. We consider a one-dimensional two-phase Stefan problem, modeling a layer of solid material...
The thermodynamic analysis of the morphological stability of a planar solidification front during th...
The classical Stefan problem is a linear onedimensional heat equation with a free boundary at one en...
AbstractWe present a numerical treatment of a generalized two-dimensional Stefan problem which model...
Understanding the solidification process of a binary alloy is important if one is to control the mic...
We treat two related moving boundary problems. The first is the ill-posed Stefan problem for meltin...
The problem of melting a crystal dendrite is modeled as a quasi-steady Stefan problem. By employing ...
The addition of surface tension to the classical Stefan problem for melting a sphere causes the solu...
Contact melting is the process during which a phase change material is placed in contact with a subs...
A two-dimensional Stefan problem is usually introduced as a model of solidification, melting or subl...
We develop a framework for a {\em unified} treatment of well-posedness for the Stefan problem with a...
The stability of flat interfaces with respect to a spatial semidiscretization of a solidification mo...
Solidification processes are crucial for many industrial applications, and understanding these proce...
AbstractWe consider a one-dimensional two-phase Stefan problem, modeling a layer of solid material f...
We present a one-phase quasi-steady Stefan problem with Gibbs-Thomson and the kinetic effects when t...
Abstract. We consider a one-dimensional two-phase Stefan problem, modeling a layer of solid material...
The thermodynamic analysis of the morphological stability of a planar solidification front during th...
The classical Stefan problem is a linear onedimensional heat equation with a free boundary at one en...