Hypothesis of quark binding by condensation of gluons in hadrons

Abstract

Hypothesis of quark binding through condensation of gluons inside hadrons is formulated in the context of a renormalization group procedure for effective particles (RGPEP) in the light-front (LF) Hamiltonian approach to QCD. At the momentum scales of relative motion of hadronic constituents that are comparable with Lambda_QCD, the hypothetical boost-invariant constituent dynamics is identified using gauge symmetry. The resulting picture of mesons and baryons closely resembles constituent quark models with harmonic oscillator potentials, shares some features of AdS/QCD, and can be systematically studied using RGPEP in QCD.

7 pages, Few Body Systems style, 1 png figure, presented at LIGHTCONE 2011, 23 - 27 May, 2011, Dallas, TX

References in corpus (5)

• Light-Front Dynamics and AdS/QCD Correspondence: The Pion Form Factor in the Space- and Time-Like Regions
• Light-Front Dynamics and AdS/QCD Correspondence: Gravitational Form Factors of Composite Hadrons
• Essence of the vacuum quark condensate
• Production of the Smallest QED Atom: True Muonium (mu^+ mu^-)
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Cited by in corpus (5)

• Glauber model for small system using anisotropic and inhomogeneous density profile of proton
• Manifestation of proton structure in the initial-state anisotropies in high-energy proton-proton collisions
• Proton structure in high-energy high-multiplicity p-p collisions
• Excited lepton baryogenesis
• Asymptotic freedom in the Hamiltonian approach to binding of color