Static and dynamic properties of liquid Zn, Cd and Hg divalent metals: An orbital free ab initio molecular dynamics study
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Abstract
Abstract We report a study on several static and dynamic properties of liquid Zn, Cd, and Hg divalent metals at thermodynamic conditions near their respective triple points. The calculations have been carried out by using the orbital free ab initio molecular dynamics (OF-AIMD) simulation technique which is based on the density functional theory. Results are reported for a range of static structural magnitudes, such as static structure factors, pair distribution functions and coordination numbers. A comparison with the available X-ray diffraction data shows that the OF-AIMD method can provide a reasonable description of the static structure. As for the dynamic properties, results are reported for both single and collective dynamics. The calculated dynamic structure factors show side peaks which point to the existence of collective density excitations. Finally, we report the calculation of some transport coefficients which are compared with the corresponding experimental data. Comparison with other AIMD methods show some discrepancies in dynamic properties, and possible modifications of the approach used in this study are suggested accordingly.
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Research context
OpenAlex topics: Chemical Thermodynamics and Molecular Structure · nanoparticles nucleation surface interactions · Advanced Chemical Physics Studies
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References (56)
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