The pion wave function in covariant light-front dynamics
arXiv:1009.5484 · doi:10.1140/epja/i2011-11017-4
Abstract
The structure of the pion wave function in the relativistic constituent quark model is investigated in the explicitly covariant formulation of light-front dynamics. We calculate the two relativistic components of the pion wave function in a simple one-gluon exchange model and investigate various physical observables: decay constant, charge radius, electromagnetic and transition form factors. We discuss the influence of the full relativistic structure of the pion wave function for an overall good description of all these observables, including both low and high momentum scales.
12 pages, 10 figures
References in corpus (5)
- Determination of the Charged Pion Form Factor at Q2=1.60 and 2.45 (GeV/c)2
- Pion Generalized Parton Distributions with covariant and Light-front constituent quark models
- Systematic renormalization scheme in light-front dynamics with Fock space truncation
- Electromagnetic pion and kaon form factors in light-cone resummed perturbative QCD
- The pion wave function in covariant light-front dynamics
Cited by in corpus (12)
- Quarkonium as relativistic bound state on the light front
- Constraints on the Light Pseudoscalar Meson Distribution Amplitudes from Their Meson-Photon Transition Form Factors
- Pion and kaon elastic form factors in a refined light-front model
- Dynamical spin effects in the holographic light-front wavefunctions of light pseudoscalar mesons
- Frame dependence of form factors in light-front dynamics
- The eta-photon transition form factor
- Light-front wavefunctions of mesons by design
- Pseudoscalar mesons with symmetric bound state vertex functions on the light front
- The pion wave function in covariant light-front dynamics
- Unambiguous Extraction of the Electromagnetic Form Factors for Spin-1 Particles on the Light-Front
- Spectroscopic parameters and electromagnetic form factor of kaon in vacuum and a dense medium
- Chiral sum rule on the light front and the 3D image of the pion