Angular Distributions for Multi-body Semileptonic Charmed Baryon Decays
arXiv:2108.06110 · doi:10.1140/epjc/s10052-021-09779-1
Abstract
We perform an analysis of angular distributions in semileptonic decays of charmed baryons , where the are the SU(3)-antitriplet baryons and is an SU(3) sextet. We will firstly derive analytic expressions for angular distributions using helicity amplitude technique. Based on the lattice QCD results for and form factors and model calculation of the transition, we predict branching fractions: , , , , , . Besides, we also predict the -dependence and angular distributions of these processes, in particular the coefficients for the (, ) terms. This work can provide a theoretical basis for the ongoing experiments at BESIII, LHCb and BELLE-II.
24 pages, 5 figures
References in corpus (11)
- Measurement of the Differential Branching Fraction and Forward-Backword Asymmetry for B->K(*)l+l-
- Weak Decays of Doubly Heavy Baryons: SU(3) Analysis
- form factors and decay rates from lattice QCD with physical quark masses
- Measurement of the Absolute Branching Fraction for
- Semileptonic decays of anti-triplet charmed baryons
- Precision measurement of the mass and lifetime of the baryon
- Analysis of Charmless Two-body B decays in Factorization Assisted Topological Amplitude Approach
- Semileptonic decays of baryons in the relativistic quark model
- Measurements of the branching fractions of the semileptonic decays and the asymmetry parameter of
- Semileptonic weak decays of anti-triplet charmed baryons in the light-front formalism
- Hadronization studies at the LHC with ALICE
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- Charmed baryon and decays in light cone sum rules
- Anatomy of semileptonic decays
- Topological approach for two-body weak decays
- A novel method for searching the - mixing effect in the angular distribution analysis of a four-body decay