A new molecular dynamics calculation and its application to the spectra of light and strange baryons
arXiv:0805.1298 · doi:10.1088/0954-3899/36/1/015001
Abstract
A new approach based on antisymmetrized molecular dynamics is proposed to correctly take account of the many-body correlation. We applied it to the spectra of low-lying, light and strange baryons. The inclusion of the quark-quark correlation is vital to predict the precise spectra, and the semi-relativistic kinematics is also important to correct the level ordering. The baryon spectra calculated by the present method is as precise as the Faddeev calculation.
13 pages, 2 figures
References in corpus (15)
- The Spectrum of the Nucleons and the Strange Hyperons and Chiral Dynamics
- Unified description of light- and strange-baryon spectra
- Nucleon and hadron structure changes in the nuclear medium and impact on observables
- Structure of Light Unstable Nuclei Studied with Antisymmetrized Molecular Dynamics
- Quark-model study of few-baryon systems
- Molecular Dynamics for Fermions
- Variation of hadron masses in finite nuclei
- Four-quark spectroscopy within the hyperspherical formalism
- The Tcc = DD* molecular state
- Constituent quark model study of light- and strange-baryon spectra
- The role of components in the nucleon and the N(1440) resonance
- Prediction of Narrow , , and states of in a Quark model with Antisymmetrized Molecular Dynamics
- Chiral quark model with relativistic kinematics
- Axial vector tetraquark with S=+2
- Lambda(1405) as a Resonance in the Baryon-Meson Scattering Coupled to the q^3 State in a Quark Model