Derivative Properties Data for Hydrogen-Ethylene Supercritical Mixtures Using a SAFT EoS and a SAFT Force Field

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Abstract

Hydrogen is a promising component for a more sustainable world, but its wide application depends upon the development of new technologies and processes. Therefore, a reliable set of thermodynamic properties is of paramount importance. Statistical mechanics provides the necessary tools to build very accurate molecular-based models for a given interaction potential. Statistical associating fluid theory (SAFT) entails a family of such models. From such molecular-based equations of state, new coarse-grained force fields can be derived for molecular simulations. In this work, we applied the SAFT-γMie force field to generate extensive data for derivative properties of supercritical hydrogen-ethylene mixtures at 300 K, comparing the results with the SAFT-VR Mie equation of state.

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Bartolomeu, R. A. C., Lopes, J. T., Spera, M. B. M., & Franco, L. F. M. (2020). Derivative Properties Data for Hydrogen-Ethylene Supercritical Mixtures Using a SAFT EoS and a SAFT Force Field. Journal of Chemical and Engineering Data, 65(12), 5735–5742. https://doi.org/10.1021/acs.jced.0c00699

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