Variational and Dyson--Schwinger Equations of Hamiltonian Quantum Chromodynamics
arXiv:1801.02045 · doi:10.1103/PhysRevD.97.054027
Abstract
The variational Hamiltonian approach to Quantum Chromodynamics in Coulomb gauge is investigated within the framework of the canonical recursive Dyson--Schwinger equations. The dressing of the quark propagator arising from the variationally determined non-perturbative kernels is expanded and renormalized at one-loop order, yielding a chiral condensate compatible with the observations.
References in corpus (16)
- LHAPDF6: parton density access in the LHC precision era
- Infrared Properties of QCD from Dyson-Schwinger equations
- Baryons as relativistic three-quark bound states
- Pinch Technique: Theory and Applications
- Confining Solution of the Dyson-Schwinger Equations in Coulomb Gauge
- Non-Gaussian wave functionals in Coulomb gauge Yang--Mills theory
- Dielectric function of the QCD vacuum
- Properties of Color-Coulomb String Tension
- Running mass, effective energy and confinement: the lattice quark propagator in Coulomb gauge
- Chiral Symmetry Breaking on the Lattice
- Improved variational approach to QCD in Coulomb gauge
- Quarks in Coulomb gauge perturbation theory
- Revised variational approach to QCD in Coulomb gauge
- Coulomb string tension, asymptotic string tension, and the gluon chain
- Overlap Quark Propagator in Coulomb Gauge QCD and the Interrelation of Confinement and Chiral Symmetry Breaking
- Lattice calculation of coordinate-space vector and axial-vector current correlators in QCD
Cited by in corpus (5)
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- Chiral symmetry restoration at finite temperature within the Hamiltonian approach to QCD in Coulomb gauge
- The Equal-Time Quark Propagator in Coulomb Gauge
- Schwinger-Dyson type equations for some QFT models
- Dynamical Quark Mass Generation in QCD\textsubscript{3} within the Hamiltonian approach in Coulomb gauge