TY - UNPB
T1 - Strange Hadron Spectroscopy with Secondary KL Beam in Hall D
AU - KLF
AU - Collaboration, KLF
AU - Amaryan, Moskov
AU - Bashkanov, Mikhail
AU - Dobbs, Sean
AU - Ritman, James
AU - Stevens, Justin
AU - Strakovsky, Igor
AU - Adhikari, Shankar
AU - Asaturyan, Arshak
AU - Austregesilo, Alexander
AU - Baalouch, Marouen
AU - Baturin, Vitaly
AU - Berdnikov, Vladimir
AU - Becerra, Olga Cortes
AU - Black, Timothy
AU - Boeglin, Werner
AU - Briscoe, William
AU - Burkert, Volker
AU - Chudakov, Eugene
AU - Clash, Geraint
AU - Cole, Philip
AU - Crede, Volker
AU - Day, Donal
AU - Degtyarenko, Pavel
AU - Deur, Alexandre
AU - Dodge, Gail
AU - Dolgolenko, Anatoly
AU - Eidelman, Simon
AU - Egiyan, Hovanes
AU - Epifanov, Denis
AU - Eugenio, Paul
AU - Fegan, Stuart
AU - Filippi, Alessandra
AU - Furletov, Sergey
AU - Gan, Liping
AU - Garibaldi, Franco
AU - Gasparian, Ashot
AU - Gavalian, Gagik
AU - Glazier, Derek
AU - Gleason, Colin
AU - Goryachev, Vladimir
AU - Guo, Lei
AU - Hamilton, David
AU - Hayrapetyan, Avetik
AU - Huber, Garth
AU - Hurley, Andrew
AU - Mocanu, Mihai
AU - Nicol, Matthew
AU - Watts, Daniel
AU - Zachariou, Nicholas
N1 - Final version of the KLF Proposal [C12-19-001] approved by JLab PAC48. The intermediate version of the proposal was posted in arXiv:1707.05284 [hep-ex]. 103 pages, 52 figures, 8 tables, 324 references. Several typos were fixed
PY - 2020/8/19
Y1 - 2020/8/19
N2 - We propose to create a secondary beam of neutral kaons in Hall D at Jefferson Lab to be used with the GlueX experimental setup for strange hadron spectroscopy. The superior CEBAF electron beam will enable a flux on the order of $1\times 10^4~K_L/sec$, which exceeds the flux of that previously attained at SLAC by three orders of magnitude. The use of a deuteron target will provide first measurements ever with neutral kaons on neutrons. The experiment will measure both differential cross sections and self-analyzed polarizations of the produced $\Lambda$, $\Sigma$, $\Xi$, and $\Omega$ hyperons using the GlueX detector at the Jefferson Lab Hall D. The measurements will span CM $\cos\theta$ from $-0.95$ to 0.95 in the range W = 1490 MeV to 2500 MeV. The new data will significantly constrain the partial wave analyses and reduce model-dependent uncertainties in the extraction of the properties and pole positions of the strange hyperon resonances, and establish the orbitally excited multiplets in the spectra of the $\Xi$ and $\Omega$ hyperons. Comparison with the corresponding multiplets in the spectra of the charm and bottom hyperons will provide insight into he accuracy of QCD-based calculations over a large range of masses. The proposed facility will have a defining impact in the strange meson sector through measurements of the final state $K\pi$ system up to 2 GeV invariant mass. This will allow the determination of pole positions and widths of all relevant $K^\ast(K\pi)$ $S$-,$P$-,$D$-,$F$-, and $G$-wave resonances, settle the question of the existence or nonexistence of scalar meson $\kappa/K_0^\ast(700)$ and improve the constrains on their pole parameters. Subsequently improving our knowledge of the low-lying scalar nonet in general.
AB - We propose to create a secondary beam of neutral kaons in Hall D at Jefferson Lab to be used with the GlueX experimental setup for strange hadron spectroscopy. The superior CEBAF electron beam will enable a flux on the order of $1\times 10^4~K_L/sec$, which exceeds the flux of that previously attained at SLAC by three orders of magnitude. The use of a deuteron target will provide first measurements ever with neutral kaons on neutrons. The experiment will measure both differential cross sections and self-analyzed polarizations of the produced $\Lambda$, $\Sigma$, $\Xi$, and $\Omega$ hyperons using the GlueX detector at the Jefferson Lab Hall D. The measurements will span CM $\cos\theta$ from $-0.95$ to 0.95 in the range W = 1490 MeV to 2500 MeV. The new data will significantly constrain the partial wave analyses and reduce model-dependent uncertainties in the extraction of the properties and pole positions of the strange hyperon resonances, and establish the orbitally excited multiplets in the spectra of the $\Xi$ and $\Omega$ hyperons. Comparison with the corresponding multiplets in the spectra of the charm and bottom hyperons will provide insight into he accuracy of QCD-based calculations over a large range of masses. The proposed facility will have a defining impact in the strange meson sector through measurements of the final state $K\pi$ system up to 2 GeV invariant mass. This will allow the determination of pole positions and widths of all relevant $K^\ast(K\pi)$ $S$-,$P$-,$D$-,$F$-, and $G$-wave resonances, settle the question of the existence or nonexistence of scalar meson $\kappa/K_0^\ast(700)$ and improve the constrains on their pole parameters. Subsequently improving our knowledge of the low-lying scalar nonet in general.
KW - nucl-ex
KW - hep-ex
KW - hep-ph
KW - nucl-th
M3 - Preprint
BT - Strange Hadron Spectroscopy with Secondary KL Beam in Hall D
ER -