On the formation/dissolution of equilibrium droplets
arXiv:math-ph/0207012 · doi:10.1209/epl/i2002-00312-y
Abstract
We consider liquid-vapor systems in finite volume at parameter values corresponding to phase coexistence and study droplet formation due to a fixed excess of particles above the ambient gas density. We identify a dimensionless parameter and a \textrm{universal} value $\Deltac=\Deltac(d)$, and show that a droplet of the dense phase occurs whenever $Δ>\Deltac$, while, for $Δ<\Deltac$, the excess is entirely absorbed into the gaseous background. When the droplet first forms, it comprises a non-trivial, \textrm{universal} fraction of excess particles. Similar reasoning applies to generic two-phase systems at phase coexistence including solid/gas--where the ``droplet'' is crystalline--and polymorphic systems. A sketch of a rigorous proof for the 2D Ising lattice gas is presented; generalizations are discussed heuristically.
An announcement of a forthcoming rigorous work on the 2D Ising model; to appear in Europhys. Lett
References in corpus (3)
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