Effects of Negative Energy Components in the Constituent Quark Model
arXiv:nucl-th/9304023 · doi:10.1103/PhysRevC.48.896
Abstract
Relativistic covariance requires that in the constituent quark model for mesons the positive energy states as well as the negative energy states are included. Using relativistic quasi-potential equations the contribution of the negative energy states is studied for the light and charmonium mesons. It is found that these states change the meson mass spectrum significantly but leave its global structure untouched.
14 pages revtex 3.0, 4 figures uudecoded attached in postscript format, THU-93/12
Cited by in corpus (14)
- Pion-nucleon interaction in a covariant hadron-exchange model
- New spectral representation and evaluation of f_πand the quark condensate <\bar q q> in the terms of string tension
- Pseuduscalar Heavy Quarkonium Decays With Both Relativistic and QCD Radiative Corrections
- Heavy Quarkonia in the Instantaneous Bethe-Salpeter Model
- Feynman-Schwinger representation approach to nonperturbative physics
- Relativistic bound-state equations in three dimensions
- Bethe-Salpeter study of radially excited vector quarkonia
- Magnetic string contribution to hadron dynamics in QCD
- The matrix Hamiltonian for hadrons and the role of negative-energy components
- Bound q\bar q Systems in the Framework of the Different Versions of the 3-Dimensional Reductions of the Bethe-Salpeter Equation
- Exact relativistic Green's functions for the time-independent potentials
- Nonperturbative evaluation of the few-body states for scalar interaction
- Feynman-Schwinger technique in field theories
- Determination of V_cb from exclusive decays in a relativistic quark model