The possible and bound and resonance states by solving Schrodinger equation
arXiv:2401.10000 · doi:10.1088/1572-9494/ad51df
Abstract
The Schrodinger equation with a Yukawa type of potential is solved analytically. When different boundary conditions are taken into account, a series of solutions are indicated as Bessel function, the first kind of Hankel function and the second kind of Hankel function, respectively. Subsequently, the scattering processes of and are investigated. In the sector, the particle is treated as a bound state, therefore, the coupling constant in the Yukawa potential can be fixed according to the binding energy of the particle. Consequently, a resonance state is generated by solving the Schrodinger equation with the outgoing wave condition, which lie at MeV on the complex energy plane. It is reasonable to assume that the resonance state at MeV might correspond to the particle in the review of Particle Data Group(PDG).In the sector, since the particle is almost located at the threshold, the binding energy of it equals to zero approximately. Therefore, the coupling constant in the Yukawa potential is determined, which is related to the first zero point of the zero order Bessel function. Similarly to the case, four resonance states are produced as solutions of the Schrodinger equation with the outgoing wave condition. It is assumed that the resonance states at MeV, MeV, MeV and MeV might be associated with the , the , the and particles, respectively. It is noted that all solutions are isospin degenerate.
9 pages, 2 tables, 4 figures, to be published in Communications in Theoretical Physics
References in corpus (14)
- Pentaquark and Tetraquark states
- An updated review of the new hadron states
- Chiral perturbation theory for heavy hadrons and chiral effective field theory for heavy hadronic molecules
- X(3872) and Other Possible Heavy Molecular States
- Is X(3872) {\sl Really} a Molecular State?
- Is X(3872) a molecule?
- Reconciling the X(3872) with the near-threshold enhancement in the D^0\bar{D}^{*0} final state
- Hadron Loops: General Theorems and Application to Charmonium
- Isospin breaking, coupled-channel effects, and X(3872)
- Interplay of quark and meson degrees of freedom in a near-threshold resonance
- Ambiversion of X(3872)
- Charmonium spectroscopy above thresholds
- Revising the resonance
- X(3872) as a 1D2 charmonium state