Composite nucleons in scalar and vector mean fields

Jun, 1995
11 pages
Published in:
  • Phys.Rev.C 52 (1995) 2789-2791
e-Print:
Report number:
  • ADP-95-32-T-186

Citations per year

19952002200920162023024681012
Abstract:
We emphasize that the composite structure of the nucleon may play quite an important role in nuclear physics. It is shown that the momentum-dependent repulsive force of second order in the scalar field, which plays an important role in Dirac phenomenology, can be found in the quark-meson coupling (QMC) model, and that the properties of nuclear matter are well described through the quark-scalar density in a nucleon and a self-consistency condition for the scalar field. The difference between theories of point-like nucleons and composite ones may be seen in the change of the ω\omega-meson mass in nuclear matter if the composite nature of the nucleon suppresses contributions from nucleon-antinucleon pair creation.
Note:
  • 10 pages Report-no: ADP-95-32/T186
  • nucleon: model
  • model: composite
  • nuclear physics
  • field theory: scalar
  • field theory: vector
  • mean field approximation
  • meson quark: coupling
  • coupling: meson quark
  • nuclear matter
  • omega(783): mass