4.4 Article

Linear isotherm regularities of liquid gallium under pressure

Journal

AIP ADVANCES
Volume 11, Issue 12, Pages -

Publisher

AIP Publishing
DOI: 10.1063/5.0074623

Keywords

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Funding

  1. Scientific Research Starting Foundation from the Taiyuan University of Technology
  2. Natural Science Foundation of Shanxi Province
  3. China Scholarship Council
  4. National Natural Science Foundation of China (NSFC) [11204200, 51602213]

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New regularities in liquid gallium are obtained through analysis of experimental data and calculated thermodynamic properties along isothermal lines with a power law equation of state. These regularities show linear relationships between certain variables at high temperatures, verified by analytical expressions from the derived linear isothermal regularity equation of state.
Several new regularities in liquid gallium have been obtained from both the available experimental data and calculated thermodynamic properties along the isothermal lines with the equation of state (EoS) of a power law form. The quantity V3 is linearly proportional to V-3 for all isotherms at high temperatures. Both the calculated reduced isothermal bulk modulus B*=BTVRT and the parameter Zint= derived from the available experimental data and EoS of a power law form are observed to be linear with respect to V-3 with the temperature T and gas constant R, which is verified by the derived analytical expression from the derived linear isothermal regularity (LIR) EoS. By using the analytical expression from the LIR EoS, the calculated isobaric thermal expansion coefficient, isochoric heat capacity, isobaric heat capacity, Gruneisen parameter, and Anderson-Gruneisen parameter show quite different behavior with pressure at a constant temperature compared with those values from EoS of a power law form. In addition, analytical expressions of thermodynamic properties of liquid gallium are derived from the LIR EoS, such as adiabatic bulk modulus, sound velocity, entropy, internal energy, enthalpy, Helmholtz free energy, and Gibbs free energy, which have the same tendency with pressure at a constant temperature as the numerically integrated values from EoS of a power law form.

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