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Phase equilibria in the sea-water Na, K, Mg//Cl, SO4–H2O quinary system at 0 °C

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Abstract

The phase equilibria in the quinary Na, K, Mg//Cl, SO4–H2O sea-water system at 0 °C were determined and a total phase equilibria diagram for the system was constructed by means of the translation method consistent with available literature data. There are seven points, 21 curves and 22 fields saturated, respectively, with 4, 3 and 2 equilibrium solid phases, for the quinary composition of the system. The constructed total phase equilibria diagram of the system was fragmented into divariant co-crystallization fields of two different solid phases and trivariant crystallization volumes of each of the solid phases at equilibrium. The structures of nine Janecke dry-salt phase diagrams were obtained by fragmentation of the total phase equilibria diagram into crystallization volumes. The comparison with the available literature data shows that, the obtained crystallization volume for halite agrees well with the available experimental data.

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Correspondence to Sherali Tursunbadalov.

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Tursunbadalov, S., Soliev, L. Phase equilibria in the sea-water Na, K, Mg//Cl, SO4–H2O quinary system at 0 °C. Braz. J. Chem. Eng. 37, 577–593 (2020). https://doi.org/10.1007/s43153-020-00054-6

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