Jefferson Lab > CIO > IR
Privacy and Security Notice

Publications

Publication Information

Title Algebraic model to study the internal structure of pseudo-scalar mesons with heavy-light quark content
Authors B. Almeida-Zamora, Jesus Cobos-Martinez, Adnan Bashir, Krisia Raya, Jose Rodriguez-Quintero, Jorge Segovia Gonzalez
JLAB number JLAB-THY-23-3977
LANL number (None)
Other number DOE/OR/23177-7324
Document Type(s) (Journal Article) 
Associated with EIC: No
Supported by Jefferson Lab LDRD Funding: No
Funding Source: Nuclear Physics (NP)
 

Journal
Compiled for Physical Review D
Volume 109
Page(s) 014016
Publication Abstract: The internal structure of all lowest-lying pseudo-scalar mesons with heavy-light quark content is studied in detail using an algebraic model that has been applied recently, and successfully, to the same physical observables of pseudo-scalar and vector mesons with hidden-flavor quark content, from light to heavy quark sectors. The algebraic model consists on constructing simple and evidence?based ans¨atze of the meson?s Bethe-Salpeter amplitude (BSA) and quark?s propagator in such a way that the Bethe-Salpeter wave function (BSWF) can then be readily computed algebraically. Its subsequent projection onto the light front yields the light front wave function (LFWF) whose form allows us a simple access to the valence-quark Parton Distribution Amplitude (PDA) by integrating over the transverse momentum squared. We exploit our current knowledge of the PDAs of lowest-lying pseudo-scalar heavy-light mesons to compute their Generalized Parton Distributions (GPDs) through the overlap representation of LFWFs. From these three dimensional knowledge, different limits/projections lead us to deduce the related Parton Distribution functions (PDFs), Electromagnetic Form Factors (EFFs), and Impact parameter space GPDs (IPS-GPDs). When possible, we make explicit comparisons with available experimental results and earlier theoretical predictions.
Experiment Numbers:
Group: THEORY CENTER
Document: pdf
DOI: https://doi.org/10.1103/PhysRevD.109.014016
Accepted Manuscript: PhysRevD.109.014016.pdf
Supporting Documents:
Supporting Datasets: