Dielectric constant of ice
- 1 August 1974
- journal article
- research article
- Published by AIP Publishing in The Journal of Chemical Physics
- Vol. 61 (3), 883-888
- https://doi.org/10.1063/1.1682029
Abstract
A series expansion for the dielectric constant of the Bernal‐Fowler‐Pauling model of ice relaxed to allow Bjerrum faults is developed using a renormalization technique which eliminates large numbers of subgraphs. In the no fault limit the dielectric constant has the form ε0 = ε∞ + (4πG/3)(N/V)(μ2/kT) where the Bethe type approximation yields G = 3 and the exact result in two dimensions is G = 9/π. In two dimensions the series for G exhibits reasonable convergence to the exact result. For cubic ice the series of Gobush and Hoeve are confirmed and slightly extended. These cases lend support to the series results for the Bernal‐Fowler‐Pauling model of hexagonal ice; namely, that there is very little anisotropy in ε0 and G is very close to 3. These results are used in discussing whether more refined models of ice are needed. Also, the discussion comparing G with the Kirkwood correlation function gK, begun by Stillinger and Cotter, is continued.Keywords
This publication has 21 references indexed in Scilit:
- Calculation of the Dielectric Correlation Factor of Cubic IceThe Journal of Chemical Physics, 1972
- Equilibrium Structure of Polarized IceThe Journal of Chemical Physics, 1972
- Dielectric Properties of Ice IThe Journal of Chemical Physics, 1969
- Proof of the first order phase transition in the Slater KDP modelCommunications in Mathematical Physics, 1969
- Exact Solution of a Model of Two-Dimensional Ferroelectrics in an Arbitrary External Electric FieldPhysical Review Letters, 1967
- Exact Solution of the Two-Dimensional Slater KDP Model of a FerroelectricPhysical Review Letters, 1967
- IceScientific American, 1966
- Configurational statistics and the dielectric constant of iceProceedings of the Physical Society, 1964
- The Entropy of Water and the Third Law of Thermodynamics. The Heat Capacity of Ice from 15 to 273°K.Journal of the American Chemical Society, 1936
- The Structure and Entropy of Ice and of Other Crystals with Some Randomness of Atomic ArrangementJournal of the American Chemical Society, 1935