"Phase freezeout" in isentropically expanding matter
Igor Iosilevskiy

TL;DR
This paper discusses the phenomenon of phase freezeout during isentropic expansion of warm dense matter crossing the liquid-gas binodal, highlighting its potential for creating uniform states on the binodal for diagnostics.
Contribution
It introduces the concept of phase freezeout in isentropic expansion, linking it to the formation of uniform states on the binodal during matter expansion.
Findings
Extended uniform 'boiling layer' forms at the binodal during expansion.
Self-similarity leads to a finite, fixed portion of matter in the boiling layer.
Potential for using phase freezeout to generate and diagnose uniform states on the binodal.
Abstract
Features of isentropic expansion of warm dense matter (WDM) created by intense energy fluxes (strong shock compression or instant isochoric heating by laser or heavy ions) are under discussion in situation when () -- thermodynamic trajectory of such expansion crosses binodal of liquid-gas phase transition, and () -- expansion within the two-phase region is going along equilibrium branch (not metastable one) of the two-phase mixture isentrope. It is known in the plane case that because of break in the expansion isentrope at binodal point (in plane) i.e. jump of sound velocity in this point, there appears extended zone ("boiling layer") of uniformity in expanding material with constant thermodynamic and kinematic parameters. It corresponds just to the state on this binodal of boiling liquid. The point is that because of self-similarity of such expansion (in plane case) this…
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Taxonomy
TopicsAdvanced Thermodynamics and Statistical Mechanics · nanoparticles nucleation surface interactions · Phase Equilibria and Thermodynamics
