Identifying Hadronic Molecular States with a Neural Network
arXiv:2205.03572 · doi:10.1140/epjc/s10052-023-11170-1
Abstract
Neural networks are trained to judge whether or not an exotic state is a hadronic molecule of a given channel according its line-shapes. This method performs well in both trainings and validation tests. As applications, it is applied to study , and . The results show that should be regarded as a molecular state but not. As for , it can not be a molecular state of . Some discussions on are also provided.
arXiv commentRevised version published in EPJC, one author is added
References in corpus (27)
- Observation of a New Narrow Charmonium State in Exclusive B+-->K+ pi+pi- J/psi Decays
- Observation of a narrow charmonium-like state in exclusive B+ -> K+ pi+pi- J/psi decays
- Observation of a charged charmoniumlike structure in e+e- to pi+pi-J/psi at \sqrt{s}=4.26 GeV
- Determination of the X(3872) meson quantum numbers
- New Exotic Meson and Baryon Resonances from Doubly-Heavy Hadronic Molecules
- Precise measurement of the cross section at center-of-mass energies from 3.77 to 4.60 GeV
- Study of Resonances in Exclusive B Decays to Dbar(*)D(*)K
- Study of the lineshape of the state
- Interpretation of the X(3872) as a charmonium state plus an extra component due to the coupling to the meson-meson continuum
- Observation of in
- as the first -wave open charm vector molecular state?
- : what has been really seen?
- Confirmation of a charged charmoniumlike state in with double tag
- Ambiversion of X(3872)
- Cross section measurements of from 4.178 to 4.278 GeV
- A Review on Partial-wave Dynamics with Chiral Effective Field Theory and Dispersion Relation
- Electromagnetic Structure of the Z_c(3900)
- On the Nature of X(4260)
- A Refined Analysis on the Resonance
- Some remarks on
- as a molecule from the pole counting rule
- Discussions on the Line-shape of Resonance
- X_1(2900) as a D_1 K molecule
- Model independent analysis of coupled-channel scattering: a deep learning approach
- X(3872) in an unquenched quark model
- Classifying near-threshold enhancement using deep neural network
- On leptonic width of