- Open Access
Study on the properties of hidden-charm pentaquarks with double strangeness
Phys. Rev. D 112, 014036 – Published 22 July, 2025
DOI: https://doi.org/10.1103/cwz9-12k6
Abstract
Since the LHCb collaboration successively reported the hidden-charm exotic states and , these exotic states have rightfully attracted significant attention from theoretical perspectives. Motivated by these exotic states, this study systematically investigates the hidden-charm double-strange pentaquark system with the quark configuration using the resonating group method within the framework of the quark delocalization color screening model. The dynamical estimations, incorporating channel coupling, identify five resonance states in the hidden-charm double-strange systems, denoted as and with , , , and with , through scattering phase shifts processes of various channels. and with , with mass range and decay widths of (4684 MeV–4688 MeV, 6.4 MeV–24.2 MeV) and (4751 MeV–4756 MeV, 3.2 MeV–18.7 MeV), can be derived from the scattering processes of channels , , and , it should be noted that resonance state , in addition to the channels mentioned above, can also be observed in and . For the quantum number , and can be identified in channels , and , and and , respectively, the estimated masses and decay widths of these resonance states range from approximately (4749 MeV–4755 MeV, 16.4 MeV) and (4771 MeV-4772 MeV, 18.8 MeV). However, the residual resonance state , for which the estimated mass and decay width are about 4600 MeV and 21.7 MeV, is expected to be found only in channel . Given the current theoretical estimations, experiments are anticipated to further explore hidden-charm double-strange pentaquark states through the possible decay channels, thereby offering a strong theoretical foundation for their experimental investigation.
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