Low-lying di-hadronic states in relativistic harmonic model
Ajay Kumar Rai, J N Pandya, P C Vinodkumar
Abstract
Di-hadronic molecules such as di-meson, meson-baryon and di-baryon states are studied in the relativistic confinement model. We have computed the binding energy of the di-hadronic systems like K-N, Π-N, ρ-N etc., as penta-quark states, 2π, ρ-ρ, K-K*, K*-K*, D-D* etc. as tetra-quark states and N-N, N-Δ, Δ-Δ etc. as di-baryonic states using a molecular interaction provided by asymptotic expression of the confined gluon exchange potential. We find the lowest penta-quark state lies in the energy range of 1.180 - 2.247 GeV as predicted by other theoretical models. The exotic states such as f0 (0.982), h1 (1.170), f0 (1.70), f2 (1.565), f2 (1.95), ψ(4.040) etc. are identified as the di-mesonic hadron molecules. The low-lying di-baryon molecular states found to be in the range of 1.990-2.907 GeV with their binding energies lying between 112-120 MeV.
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