Dual Ginzburg-Landau Theory for Quark Confinement and Dynamical Chiral-Symmetry Breaking
H. Toki, Hideo Suganuma, Shoichi Sasaki, H. Ichie
Abstract
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H. Toki, Hideo Suganuma, Shoichi Sasaki, H. Ichie
Abstract
Open-access reader
Nonperturbative features of QCD are studied using the dual Ginzburg-Landau (DGL) theory with QCD-monopoles. The linear quark potential appears in the QCD-monopole condensed vacuum. We find that QCD-monopole condensation plays an essential role to the dynamical chiral-symmetry breaking. We also investigate the QCD phase transition at finite temperature in the DGL theory.
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Nonperturbative features of QCD are studied using the dual Ginzburg-Landau (DGL) theory with QCD-monopoles. The linear quark potential appears in the QCD-monopole condensed vacuum. We find that QCD-monopole condensation plays an essential role to the dynamical chiral-symmetry breaking. We also investigate the QCD phase transition at finite temperature in the DGL theory.
Key concepts: Physics, Quantum chromodynamics, QCD vacuum, Chiral symmetry breaking, Magnetic monopole, Color confinement, Particle physics, Quark