A thin wetting layer that is quenched towards complete wetting
grows and becomes thicker.
This growth may proceed via vapor deposition
[1]
or may be limited by diffusion
[2].
The time evolution of these processes depends on the interplay between
molecular interactions
and interfacial shape fluctuations and reflects the different scaling regimes
for wetting.
[1]
[2]
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-
H. Löwen and R. Lipowsky.
Surface melting away from equilibrium.
Phys. Rev. B 43, 3507-3513 (1991).
-
R. Lipowsky.
Scaling properties of interfaces and membranes
In 'Random fluctuations and
Growth' (Kluwer, 1988).
Section 4 contains a classification of the different growth
modes for wetting layers.
-
R. Lipowsky and D. A. Huse.
Diffusion-limited growth of wetting layers.
Phys. Rev. Lett. 57, 353-356 (1986).
Theoretical predictions which were confirmed experimentally
by U. Steiner and J. Klein, PRL 77 (1996)
and by
D. Bonn, E. Bertrand, J. Meunier, and R. Blossey, PRL 84 (2000).
-
R. Lipowsky.
Nonlinear growth of wetting layers.
J. Phys. A 18, L585-L590 (1985).
Growth of liquid layer by deposition from the
vapor phase.