Phase transition of the nucleon-antinucleon plasma in a relativistic mean-field theory
- 1 November 1983
- journal article
- research article
- Published by American Physical Society (APS) in Physical Review D
- Vol. 28 (9) , 2286-2290
- https://doi.org/10.1103/physrevd.28.2286
Abstract
Studying Walecka's mean-field theory we find that one can reproduce the observed binding energy and density of nuclear matter within experimental precision in an area characterized by a line in the coupling-constant plane. A part of this line defines systems which exhibit a phase transition around MeV for zero baryon density. The rest corresponds to such systems where the phase transition is absent; in that case a peak appears in the specific heat around MeV. We interpret these results as indicating that the hadron phase of nuclear matter alone indicates the occurrence of an abrupt change in the bulk properties around and MeV.
Keywords
This publication has 14 references indexed in Scilit:
- Systematics of nuclear matter properties in a non-linear relativistic field theoryPhysics Letters B, 1983
- Thermodynamical properties of the gluon matterPhysics Letters B, 1982
- Thermodynamic behavior of non-strange baryonic matterNuclear Physics A, 1979
- Transition to hot quark matter in relativistic heavy-ion collisionPhysics Letters B, 1978
- Relativistic calculation of nuclear matter and the nuclear surfaceNuclear Physics A, 1977
- Green's function formalism and quantum correction for finite-temperature baryon matterPhysics Letters B, 1977
- Relativistic many-body studies of high density matterPhysics Letters B, 1976
- Equation of state for neutron matter at finite T in a relativistic mean-field theoryPhysics Letters B, 1975
- An equation of state for nuclear and higher-density matter based on relativistic mean-field theoryPhysics Letters B, 1974
- A theory of highly condensed matterAnnals of Physics, 1974