A pedagogical extension of QHD mean-field neutron-star models to exotic particles, reporting that a scanned SU(3) parameter αV can give hyperonic maximum masses near 2.2 solar masses.
Neutron Stars, the Most Exotic Nuclear Lab in the Universe
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abstract
In this lecture, we give a first introduction to neutron stars, based on fundamental physical principles. After outlining their amazing macroscopic properties, as obtained from observations, we infer the extreme conditions of matter in their interiors. We then describe two crucial physical phenomena which characterize compact stars, gravitational stability of strongly degenerate matter and neutronization of nuclear matter with increasing density, and explain how the formation and properties of neutron stars are a consequence of the extreme compression of matter under gravity. Finally, we describe how astronomical observations of various external macroscopic features can give invaluable information about the exotic microscopic scenario inside: neutrons stars represent a unique probe to study super-dense, isospin-asymmetric, superfluid, bulk hadronic matter.
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An Undergraduate Approach to the Quantum Hadrodynamics and the Physics of Neutron Stars Part II: Neutron Stars' Exotic Content
A pedagogical extension of QHD mean-field neutron-star models to exotic particles, reporting that a scanned SU(3) parameter αV can give hyperonic maximum masses near 2.2 solar masses.