Study of excited $D$ and $D_s$ mesons in a relativized quark model
Saba Noor, Faisal Akram, Bilal Masud

TL;DR
This paper employs a modified relativistic quark model to analyze the spectra, wave functions, and radiative transitions of excited charmed and charmed strange mesons, including hybrid states, and compares results with experimental data.
Contribution
It introduces a comprehensive relativized quark model incorporating gluonic excitations and spin effects, providing detailed predictions for meson spectra and transitions.
Findings
Calculated meson masses and wave functions match experimental data.
Predicted properties of hybrid mesons including gluonic excitations.
Provided insights into radiative transitions of open charm mesons.
Abstract
We use a modified relativistic quark model to study the properties of excited charmed and charmed strange mesons. We calculate the masses and wave functions of conventional charmed and charmed strange mesons incorporating both spin and - mixing effects and fit parameters of the potential model with known experimental states using differential evolution technique. Using Leading Born-Oppenheimer expansion, we also compute the spectrum and wave functions of first gluonic excited state of charmed and charmed strange mesons. We examine the effects of gluonic excitation on the spectrum of resultant hybrid mesons. By using our calculated spectrum and wave functions, we determine the radiative transitions of the conventional and hybrid open charm mesons. We compare our calculations with experimental data and other works. We expect our results will be beneficial in the detection of the…
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Taxonomy
TopicsQuantum Chromodynamics and Particle Interactions · Particle physics theoretical and experimental studies · Quantum and Classical Electrodynamics
