This presentation reviews an approach to nuclear many-body systems based on the
spontaneously broken chiral symmetry of low-energy QCD. In the low-energy limit, for …

Chiral symmetry, first entering in nuclear physics in the 1970s for which Gerry Brown played
a seminal role, has led to a stunningly successful framework for describing strongly …

We investigate the effects of the anomalous magnetic moment (AMM) in the equation of state
(EOS) of a system of charged fermions at finite density in the presence of a magnetic field. In …

We investigate the effects of a magnetic field on the thermodynamics of a neutron system at
finite density and temperature. Our main motivation is to deepen the understanding of the …

Dense neutron matter with recently developed BSk19 and BSk21 Skyrme effective forces is
considered in magnetic fields up to 1020 G at zero temperature. The breaking of the …

We present a microscopic calculation of the complete quasiparticle interaction, including
central as well as noncentral components, in neutron matter from high-precision two-and …

Using the quadratic expansion in the photon fields of Euler–Heisenberg (EH) non-linear
electrodynamics (NLED) Lagrangian model we study relevant vacuum properties in a …

We study the effects of a strong magnetic field on the proton and neutron spin polarization
and magnetic susceptibility of asymmetric nuclear matter within a relativistic mean-field …

The neutrino mean free path is evaluated in hot proto–neutron star matter under a strong
magnetic field. We consider densities in the range 0.04≤ ρ≤ 0.4 fm− 3, several proton …

We discuss how a magnetic field can affect the equation of state of a many-particle neutron
system. We show that, due to the anisotropy in the pressures, the pressure transverse to the …