Neutron Fermi Liquids under the presence of a strong magnetic field with effective nuclear forces
arXiv:0904.0987 · doi:10.1103/PhysRevC.80.025802
Abstract
Landau's Fermi Liquid parameters are calculated for non-superfluid pure neutron matter in the presence of a strong magnetic field at zero temperature. The particle-hole interactions in the system, where a net magnetization may be present, are characterized by these parameters in the framework of a multipolar formalism. We use either zero- or finite-range effective nuclear forces to describe the nuclear interaction. Using the obtained Fermi Liquid parameters, the effect of a strong magnetic field on some bulk magnitudes such as isothermal compressibility and spin susceptibility is also investigated.
20 pages, 10 figures
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Cited by in corpus (7)
- (In-)Significance of the Anomalous Magnetic Moment of Charged Fermions for the Equation of State of a Magnetized and Dense Medium
- Thermodynamics of Neutrons in a Magnetic Field and its Implications for Neutron Stars
- Magnetic susceptibility and magnetization properties of asymmetric nuclear matter under a strong magnetic field
- Magnetized hot neutron matter: lowest order constrained variational calculations
- Neutrino mean free paths in spin-polarized neutron Fermi liquids
- Spin-polarized low-density neutron matter
- Hot and highly magnetized neutron star matter properties with Skyrme interactions