and the variation with S of the volume of revolution V = 116'2 and surface area of revolution A = ac are given by A system of equations based on the ionic atmosphere theory of Debye and Huckel, Born model contribution, and local compositions of the nonrandom two-liquid (NRTL) model is developed to represent isothermal activity coefficients, in the whole range of concentrations, for solutions in an undissociated solvent of a partially or completely dissociated electrolyte. The physical constants and the four adjustable parameters necessary to represent the osmotic coefficient, for fifteen strong aqueous electrolytic SOlutions, are given at 298.15OK and atmospheric pressure. Vapor-liquid equilibrium, for the hydrochloric acid-water system at 298.15OK, is represented for acid compositions ranging from infinite dilution to 18 M using a known dissociation constant and six parameters.
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