We study the selection of the shape and growth velocity of three dimensional dendritic crystals in cubically anisotropic materials. We demonstrate that aside from minor additional complexities due to the lack of axisymmetry, the recently discovered mechanism of "microscopic solvability" can be extended to these systems and used to find a unique needle crystal solution of the equations of thermal diffusion-controlled solidification. We compare the predictions of this approach with measured growth rates in succinonitrile. Finally, we extend our analysis to determine the ratio of the sidebranch wavelength to the tip radius.Peer Reviewedhttp://deepblue.lib.umich.edu/bitstream/2027.42/27133/1/0000126.pd
International audienceWe consider the growth direction of cells and dendrites in directional solidif...
Using a phase field model, which fully couples the thermal and solute concentration field, we presen...
We study two representative problems related to the dynamics of pattern formation in non-linear, dis...
Dendritic patterns frequently arise when a crystal grows into its own undercooled melt. Latent heat ...
Motivated by important applications in materials science and geophysics, we consider the steady-stat...
Stable growth of a crystal with dendritic morphology with n-fold symmetry is modeled. Using the line...
We present a systematic analysis of the geometrical model of dendritic growth in the small velocity ...
We investigate needle crystal solutions in the 2-D one-sided model of dendritic growth. We find that...
Abstract—We obtain a unique solution to the well known indeterminacy for Ivantsov dendrites [Dokl. A...
Broadly speaking, our efforts have been concentrated in two aspects of directional solidification: (...
Motivated by an important application of dendritic crystals in the form of an elliptical paraboloid,...
International audienceThe solidification of a material from a melt usually involves the growth of de...
Selection of steady needle crystals in the full nonlocal symmetric model of dendritic growth is cons...
The growth of a free dendrite having a non-axisymmetric morphology with arbitrary symmetry in a pure...
A phase-field model for dendritic growth under coupled thermo-solutal control model is presented. Co...
International audienceWe consider the growth direction of cells and dendrites in directional solidif...
Using a phase field model, which fully couples the thermal and solute concentration field, we presen...
We study two representative problems related to the dynamics of pattern formation in non-linear, dis...
Dendritic patterns frequently arise when a crystal grows into its own undercooled melt. Latent heat ...
Motivated by important applications in materials science and geophysics, we consider the steady-stat...
Stable growth of a crystal with dendritic morphology with n-fold symmetry is modeled. Using the line...
We present a systematic analysis of the geometrical model of dendritic growth in the small velocity ...
We investigate needle crystal solutions in the 2-D one-sided model of dendritic growth. We find that...
Abstract—We obtain a unique solution to the well known indeterminacy for Ivantsov dendrites [Dokl. A...
Broadly speaking, our efforts have been concentrated in two aspects of directional solidification: (...
Motivated by an important application of dendritic crystals in the form of an elliptical paraboloid,...
International audienceThe solidification of a material from a melt usually involves the growth of de...
Selection of steady needle crystals in the full nonlocal symmetric model of dendritic growth is cons...
The growth of a free dendrite having a non-axisymmetric morphology with arbitrary symmetry in a pure...
A phase-field model for dendritic growth under coupled thermo-solutal control model is presented. Co...
International audienceWe consider the growth direction of cells and dendrites in directional solidif...
Using a phase field model, which fully couples the thermal and solute concentration field, we presen...
We study two representative problems related to the dynamics of pattern formation in non-linear, dis...