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Correlated study on some $B_{c}\rightarrow \text{ }P$ and $B_{c}\rightarrow\text{ }S$ wave channels in light of new inputs
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abstract
This study investigates the decay modes of the $B_c$ meson, focusing on semileptonic and nonleptonic decay into S and P wave charmonia. The primary objective is to extract the shape parameter of the $B_{c}$ meson distribution amplitude through a data-driven approach, utilizing the lattice results on $B_{c}\rightarrow\eta_{c},J/\psi$ semileptonic form factors and yielding an estimate of ${\omega_B}_c = 0.998(34)$ for the same. We use the form factors derived from the modified perturbative QCD framework in the analysis. This result and various other inputs on the radiative decays of the P wave charmonia enable us to estimate the $q^2$ shapes of the $B_{c}\rightarrow\chi_{c0},\chi_{c1}$ and $h_{c}$ form factors using pole expansion parametrization. Using these results, we have obtained predictions of LFUV observables $R(\chi_{c0})=0.169(11)$, $R(\chi_{c1})=0.126(2)$ and $R(h_{c})=0.113(3)$. Finally, we have presented predictions for branching ratios of some nonleptonic decay modes of the $B_{c}$ meson into S and P wave charmonia in the same modified perturbative QCD framework.
Forward citations
Cited by 2 Pith papers
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Precision Study of Semileptonic and Non-Leptonic $B_c$ Decays to $\eta_c$ and P Wave Charmonia
Data-constrained NRQCD form factors yield R(χ_c0)=0.185(3), R(χ_c1)=0.147(26), R(h_c)=0.068(2) and related B_c branching fractions for P-wave charmonia.
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Theoretical Summary: Moriond QCD and High-Energy Interactions 2025
A conference summary that compiles the main theory results presented at Moriond QCD 2025, spanning hard scattering, precision QCD, flavour, strong coupling, lattice, heavy-ion, and BSM physics.
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