The linear diffusion-reaction theory with finite interface kinetics is employed to describe the dissolution and the growth processes. The results show that it is imperative to consider the effect of the moving interfaces on the concentration distribution at the growth interface for some cases. For small aspect ratio and small gravity magnitude, the dissolution and the growth interfaces must be treated as the moving boundaries within an angle range of 0 degrees < gamma < 50 degrees in this work. For large aspect ratio or large gravity magnitude, the effect of the moving interfaces on the concentration distribution at the growth interface can be neglected except for gamma < - 50 degrees
International audienceWe present a continuum model describing dissolution and growth of a crystal co...
The dissolution of meta-acetotoludide from fused discs was studied using a column dissolution model....
Front and domain growth of a binary mixture in the presence of a gravitational field is studied. The...
The step model introduced by Burton, Cabrera and Frank is known to give a good description of the su...
The pure diffusion process has been often used to study the crystal growth of a binary alloy in the ...
grantor: University of TorontoStatistical Rate Theory has been previously proposed as a me...
Crystal growth on a semi-infinite surface is considered. The remaining semi-infinite part of the pla...
A mathematical treatment is presented for the growth of dendrites or precipitates with parabolic int...
Diffusion has a central role in protein crystal growth both in microgravity conditions and on ground...
In this study, a comprehensive view of a model crystal formation in a complex fluctuating medium is ...
Co-crystallization from multi-component solutions occurs in many solids formation processes. The mea...
A thermodynamic model has been developed for interlayer growth in a binary system between two phases...
The pure diffusion process has been often used to study the crystal growth of a binary alloy in the ...
Front and domain growth of a binary mixture in the presence of a gravitational field is studied. The...
A new method is presented to simulate moving interfaces during diffusion-controlled growth under loc...
International audienceWe present a continuum model describing dissolution and growth of a crystal co...
The dissolution of meta-acetotoludide from fused discs was studied using a column dissolution model....
Front and domain growth of a binary mixture in the presence of a gravitational field is studied. The...
The step model introduced by Burton, Cabrera and Frank is known to give a good description of the su...
The pure diffusion process has been often used to study the crystal growth of a binary alloy in the ...
grantor: University of TorontoStatistical Rate Theory has been previously proposed as a me...
Crystal growth on a semi-infinite surface is considered. The remaining semi-infinite part of the pla...
A mathematical treatment is presented for the growth of dendrites or precipitates with parabolic int...
Diffusion has a central role in protein crystal growth both in microgravity conditions and on ground...
In this study, a comprehensive view of a model crystal formation in a complex fluctuating medium is ...
Co-crystallization from multi-component solutions occurs in many solids formation processes. The mea...
A thermodynamic model has been developed for interlayer growth in a binary system between two phases...
The pure diffusion process has been often used to study the crystal growth of a binary alloy in the ...
Front and domain growth of a binary mixture in the presence of a gravitational field is studied. The...
A new method is presented to simulate moving interfaces during diffusion-controlled growth under loc...
International audienceWe present a continuum model describing dissolution and growth of a crystal co...
The dissolution of meta-acetotoludide from fused discs was studied using a column dissolution model....
Front and domain growth of a binary mixture in the presence of a gravitational field is studied. The...