An experimental study of the equation of state of liquid xenon

Streett, William B.; Sagan, L.S.; Staveley, L. A. K.

doi:10.1016/s0021-9614(73)80004-7

Cited by 113 publications

(27 citation statements)

References 21 publications

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“…Photoabsorption spectra for each neat dopant and each neat perturber were measured to verify the absence of impurities in the spectral range of interest. The atomic perturber number densities were calculated from the Strobridge equation of state [55] with the parameters obtained from [56] for argon, [57] for krypton, and [58] for xenon. All densities and temperatures were selected to maintain a single phase system in the sample cell.…”

Section: Experiments Techniques and Theoretical Methodology 31 Expermentioning

confidence: 99%

Atomic and Molecular Low-n Rydberg States in Near Critical Point Fluids

Li¹,

Shi²,

Cherice³

et al. 2012

Advanced Aspects of Spectroscopy

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Section: Experiments Techniques and Theoretical Methodology 31 Expermentioning

confidence: 99%

Atomic and Molecular Low-n Rydberg States in Near Critical Point Fluids

Li¹,

Shi²,

Cherice³

et al. 2012

Advanced Aspects of Spectroscopy

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“…The dashed green lines denote the melting bounds for the 5190 table and the magenta line the melt curve for the 5191 model. [53,54] is shown at 0.005 GPa, 0.01 GPa, 0.02 GPa, and 0.1 GPa using cyan pluses, exes, circles, and squares respectively. Lines are as in Fig.…”

Section: Results and Comparisonsmentioning

confidence: 99%

High fidelity equation of state for xenon

Carpenter

Flicker

Root

et al. 2010

EPJ Web of Conferences

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Abstract. The noble gas xenon is a particularly interesting element. At standard pressure xenon is an fcc solid which melts at 161 K and then boils at 165 K, thus displaying a rather narrow liquid range on the phase diagram. On the other hand, under pressure the melting point is significantly higher: 3000 K at 30 GPa [1]. Under shock compression, electronic excitations become important at 40 GPa [2]. Finally, xenon forms stable molecules with fluorine (XeF 2 ) suggesting that the electronic structure is significantly more complex than expected for a noble gas. With these reasons in mind, we studied the xenon Hugoniot using DFT/QMD [3] and validated the simulations with multi-Mbar shock compression experiments. The results show that existing equation of state models lack fidelity and so we developed a wide-range free-energy based equation of state using experimental data and results from first-principles simulations.

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“…Streett et al (20) fitted their 530 ( p, V m , T ) experimental results on pure liquid xenon, to the Strobridge equation of state, in the temperature range between 165 K and 289.74 K, and at pressures between the vapour pressure curve and the melting curve. In figure 2, the relative deviations of our experimental molar volume results on liquid xenon from values calculated from this equation of state are plotted.…”

Section: Resultsmentioning

confidence: 99%

(p, Vm, T) measurements on liquid and gaseous mixtures near the critical point. I. ( xenon + ethane )

Duarte

Guedes

Ponte

2000

The Journal of Chemical Thermodynamics

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Measurements of ( p, V m , T ) on {xXe + (1 − x)C 2 H 6 }, at x = (0, 0.237, 0.708 and 1), were carried out. The results reported in this paper cover the homogeneous gas and liquid regions in the temperature range from 273 K up to near the critical temperature of each mixture and at pressures up to 6.5 MPa. The molar volumes of the gas at the dew point pressure and of the liquid at the bubble point pressure were obtained by extrapolation. Using the gas phase results, the second and third virial coefficients of the mixtures were calculated at T = 273 K. The question of whether (xenon + ethane) presents a barotropic inversion has also been considered.

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An experimental study of the equation of state of liquid xenon

Cited by 113 publications

References 21 publications

Atomic and Molecular Low-n Rydberg States in Near Critical Point Fluids

Atomic and Molecular Low-n Rydberg States in Near Critical Point Fluids

High fidelity equation of state for xenon

(p, Vm, T) measurements on liquid and gaseous mixtures near the critical point. I. ( xenon + ethane )

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