Volume-Based Thermoelasticity: Consequences of the (Near) Proportionality of Isothermal Compressibility to Formula-Unit Volume

Groups of structurally related materials, including the alkali halides, exhibit a proportionality of isothermal compressibility to formula-unit volume. The relationship has recently been explored by Glasser and by Recio et al. In this paper, we present the consequences of such proportionality on th...

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Main Authors: Jenkins, H., Glasser, Leslie, Lee, J.
Format: Journal Article
Published: American Chemical Society 2010
Online Access:http://hdl.handle.net/20.500.11937/14278
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author Jenkins, H.
Glasser, Leslie
Lee, J.
author_facet Jenkins, H.
Glasser, Leslie
Lee, J.
author_sort Jenkins, H.
building Curtin Institutional Repository
collection Online Access
description Groups of structurally related materials, including the alkali halides, exhibit a proportionality of isothermal compressibility to formula-unit volume. The relationship has recently been explored by Glasser and by Recio et al. In this paper, we present the consequences of such proportionality on the relationships of Born-Lande and Born-Mayer parameters to the formula-unit volume. These relationships have then been tested separately on (i) alkali (excluding cesium) halides and (ii) cesium halides.We conclude that the equations fit the NaCl-type materials satisfactorily, but less well for the CsCl-type materials, and that the Born-Mayer equation is more applicable. These results confirm the conclusion that volume is intimately linked to thermodynamic quantities, as already demonstrated by our development of volume-based thermodynamics (VBT).
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spelling curtin-20.500.11937-142782017-09-13T16:02:00Z Volume-Based Thermoelasticity: Consequences of the (Near) Proportionality of Isothermal Compressibility to Formula-Unit Volume Jenkins, H. Glasser, Leslie Lee, J. Groups of structurally related materials, including the alkali halides, exhibit a proportionality of isothermal compressibility to formula-unit volume. The relationship has recently been explored by Glasser and by Recio et al. In this paper, we present the consequences of such proportionality on the relationships of Born-Lande and Born-Mayer parameters to the formula-unit volume. These relationships have then been tested separately on (i) alkali (excluding cesium) halides and (ii) cesium halides.We conclude that the equations fit the NaCl-type materials satisfactorily, but less well for the CsCl-type materials, and that the Born-Mayer equation is more applicable. These results confirm the conclusion that volume is intimately linked to thermodynamic quantities, as already demonstrated by our development of volume-based thermodynamics (VBT). 2010 Journal Article http://hdl.handle.net/20.500.11937/14278 10.1021/ic101398g American Chemical Society restricted
spellingShingle Jenkins, H.
Glasser, Leslie
Lee, J.
Volume-Based Thermoelasticity: Consequences of the (Near) Proportionality of Isothermal Compressibility to Formula-Unit Volume
title Volume-Based Thermoelasticity: Consequences of the (Near) Proportionality of Isothermal Compressibility to Formula-Unit Volume
title_full Volume-Based Thermoelasticity: Consequences of the (Near) Proportionality of Isothermal Compressibility to Formula-Unit Volume
title_fullStr Volume-Based Thermoelasticity: Consequences of the (Near) Proportionality of Isothermal Compressibility to Formula-Unit Volume
title_full_unstemmed Volume-Based Thermoelasticity: Consequences of the (Near) Proportionality of Isothermal Compressibility to Formula-Unit Volume
title_short Volume-Based Thermoelasticity: Consequences of the (Near) Proportionality of Isothermal Compressibility to Formula-Unit Volume
title_sort volume-based thermoelasticity: consequences of the (near) proportionality of isothermal compressibility to formula-unit volume
url http://hdl.handle.net/20.500.11937/14278