Open bottom mesons in magnetized matter -- effects of (inverse) magnetic catalysis
Sourodeep De, Pallabi Parui, Amruta Mishra

TL;DR
This study investigates how strong magnetic fields influence the in-medium masses of open bottom mesons in nuclear matter, highlighting the roles of magnetic catalysis, Dirac sea effects, and nucleon magnetic moments.
Contribution
It introduces a comprehensive analysis of open bottom meson mass modifications in magnetized matter, incorporating Dirac sea effects, Landau levels, and nucleon anomalous magnetic moments.
Findings
Magnetic fields significantly alter meson masses via Dirac sea effects.
Inverse magnetic catalysis enhances light quark condensates with magnetic field.
Level repulsion occurs between vector and pseudoscalar mesons under magnetic influence.
Abstract
In-medium masses of the pseudoscalar and vector open bottom mesons (, , and , , ) are studied in the magnetized nuclear matter by considering the effects of Dirac sea, within the chiral effective model. The mass modifications arise due to the interactions of the open bottom mesons with the nucleons and the scalar mesons, calculated in terms of the scalar and number densities of the nucleons and the scalar fields fluctuations. The effects of the magnetized Dirac sea lead to the considerable changes in the scalar fields with magnetic field, which are related to the light quark condensates. There is observed to be a (reduction) enhancement in the light quark condensates with magnetic field, a phenomenon called (inverse) magnetic catalysis.The contribution of the magnetic field on the Fermi sea of nucleons are taken into account through the Landau…
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Taxonomy
TopicsTheoretical and Computational Physics · Cold Atom Physics and Bose-Einstein Condensates · Quantum, superfluid, helium dynamics
