A~traet--In this paper, we present a first-order hard sphere perturbation theory of nonideal ternary fluid mixtures. Results are reported for total and excess thermodynamic properties of three ternary mixtures, in which size parameters of the mixture components are the same, but energy parameters di
Thermodynamic properties of nitrogen from a perturbation theory for ISM fluids
β Scribed by M. Lombardero; J.L.F. Abascal
- Publisher
- Elsevier Science
- Year
- 1982
- Tongue
- English
- Weight
- 241 KB
- Volume
- 85
- Category
- Article
- ISSN
- 0009-2614
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β¦ Synopsis
4 first-order Barker-Henderson perturbation theory for interaction-site model (ISM) fluids has been appled to calculate the Helmholtz frec energy, entropy and unternal energy of Liquid nutrogen Comparison with experiment reuforces the tdea that the theory is accurate over a wide range of temperatures and densities corresponding to the lique state, except for the critical region
π SIMILAR VOLUMES
In this paper, a previously developed first-order hard sphere perturbation theory of a ternary fluid mixture (Fotouh and Shukla, 1996, Chem. Enyn9 Sci. 51, 49234931) is applied to predict excess properties of a real ternary fluid mixture using a theoretically consistent combination rule. We consider
A recent paper [ 1] examined the effect of polarizability in a liquid of polar spheres by using first-order perturbation theory. A Monte Carlo calculation was
We present a hquid-state perturbation theory that accurately predicts the centers distribution function of a model fluid that resembles liquid nitrogen at its triple point. The theory contams no adjustable parameters and is based on physical principles.
more inert, large glass spheres should be underestimated. However, as shown in Fig. , this is not the case. Thus, even under these conditions, the determination seems to be representative. As a consequence, it is possible to investigate the shape of the distribution in the detectable range. In the