Quarterly Journal of the Royal Meteorological Society · 2005 · 1.6K citations · 84 references
Natural SciencesEarth SciencesMeteorologyAtmospheric ChemistryAtmospheric ScienceAtmospheric ThermodynamicsIce ChemistryIce MicrophysicsClapeyron EquationCubic IceFreezingHeat CapacityLatent HeatLatent Heat TransferPartial Molar Heat CapacitySupercooled Liquid Water
The vapour pressures of ice and supercooled water are reviewed with an emphasis on atmospheric applications. Parametrizations are given for the vapour pressure, molar heat capacity, and latent heat of vaporization of both ice and liquid water. For ice, the experimental vapour pressure data are in agreement with a derivation from the Clapeyron equation. Below 200 K cubic ice may affect the vapour pressure of ice both in the atmosphere and in the laboratory. All of the commonly used parametrizations for the vapour pressure of supercooled water are extrapolations that were not originally intended for use below the freezing point. In addition, the World Meteorological Organization definition of the vapour pressure of supercooled water contains an easily overlooked typographical error. Recent data on the molar heat capacity of supercooled water are used to derive its vapour pressure. Nevertheless, the uncertainty is such that measurements of the deliquescence and freezing behaviour of aerosol particles are beginning to be limited by uncertainties in the thermodynamics of supercooled water. Copyright © 2005 Royal Meteorological Society
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Handbook of Chemistry and Physics.
Charles D. Hodgman, S. C. Lind · The Journal of Physical Chemistry · 1949 · 3.6K citations
Microphysics of Clouds and Precipitation
H. R. Pruppacher, James D. Klett, Pao K. Wang · Aerosol Science and Technology · 1998 · 2.9K citations · Full text
Phase behaviour of metastable water
Peter H. Poole, Francesco Sciortino, Ulrich Essmann et al. · Nature · 1992 · 1.9K citations
Natural Sciences, Materials Science, Phase Transformations +12