Across five real gas equations of state, nuclear incompressibility K0 is positively correlated with the liquid-gas critical temperature and density, and negatively correlated with the quarkyonic transition density and the peak speed of sound.
Effective interaction dependence of the liquid-gas phase transition in symmetric nuclear matter
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abstract
The liquid-gas phase transition for homogeneous symmetric nuclear matter is studied in the mean-field approximation. Critical properties are computed using a comprehensive group of Skyrme and Gogny forces in an effort to elucidate the effective interaction dependence of the results. Analytical models for the thermodynamical and critical properties are discussed and compared to an extensive set of mean-field data. In agreement with these models, a tight correlation is found between the flashing and the critical points. Accurate predictions for the critical temperature, based on saturation properties, can only be obtained after the density dependence of the effective mass is properly taken into account. While the thermodynamical properties coming from different mean-fields do not follow a law of corresponding states, the critical exponents for all the mean-fields have been found to be the same. Their values coincide with those predicted by the Landau mean-field theory of critical phenomena.
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Correlations between nuclear incompressibility, liquid-gas critical point, and quarkyonic transition
Across five real gas equations of state, nuclear incompressibility K0 is positively correlated with the liquid-gas critical temperature and density, and negatively correlated with the quarkyonic transition density and the peak speed of sound.