The potential of $$\varLambda $$ and $$\varXi ^-$$ studies with PANDA at FAIR-Reference-Cited by-同舟云学术

The potential of $$\varLambda $$ and $$\varXi ^-$$ studies with PANDA at FAIR

Published:2021-04 Issue:4 Volume:57 Page:
ISSN:1434-6001
Container-title:The European Physical Journal A
language:en
Short-container-title:Eur. Phys. J. A

Author:

Barucca G.,Davì F.,Lancioni G.,Mengucci P.,Montalto L.,Natali P. P.,Paone N.,Rinaldi D.,Scalise L.,Erni W.,Krusche B.,Steinacher M.,Walford N.,Cao N.,Liu Z.,Liu C.,Liu B.,Shen X.,Sun S.,Tao J.,Xiong X. A.,Zhao G.,Zhao J.,Albrecht M.,Alkakhi W.,Bökelmann S.,Feldbauer F.,Fink M.,Frech J.,Freudenreich V.,Fritsch M.,Hagdorn R.,Heinsius F. H.,Held T.,Holtmann T.,Keshk I.,Koch H.,Kopf B.,Kuhlmann M.,Kümmel M.,Küßner M.,Li J.,Mustafa A.,Pelizäus M.,Pitka A.,Reher J.,Reicherz G.,Richter M.,Schnier C.,Sohl L.,Steinke M.,Triffterer T.,Wenzel C.,Wiedner U.,Denizli H.,Er N.,Beck R.,Hammann C.,Hartmann J.,Ketzer B.,Müllers J.,Rossbach M.,Salisbury B.,Schmidt C.,Thoma U.,Urban M.,Bianconi A.,Bragadireanu M.,Pantea D.,Domagala M.,Filo G.,Lisowski E.,Lisowski F.,Michałek M.,Poznański P.,Płażek J.,Korcyl K.,Kozela A.,Lebiedowicz P.,Pysz K.,Schäfer W.,Szczurek A.,Fiutowski T.,Idzik M.,Swientek K.,Terlecki P.,Korcyl G.,Lalik R.,Malige A.,Moskal P.,Nowakowski K.,Przygoda W.,Rathod N.,Rudy Z.,Salabura P.,Smyrski J.,Augustin I.,Böhm R.,Lehmann I.,Schmitt L.,Varentsov V.,Al-Turany M.,Belias A.,Deppe H.,Dzhygadlo R.,Flemming H.,Gerhardt A.,Götzen K.,Heinz A.,Jiang P.,Karabowicz R.,Koch S.,Kurilla U.,Lehmann D.,Lühning J.,Lynen U.,Orth H.,Peters K.,Rieger J.,Saito T.,Schepers G.,Schmidt C. J.,Schwarz C.,Schwiening J.,Täschner A.,Traxler M.,Voss B.,Wieczorek P.,Abazov V.,Alexeev G.,Arefiev V. A.,Astakhov V.,Barabanov M. Yu.,Batyunya B. V.,Dodokhov V. Kh.,Efremov A.,Fechtchenko A.,Galoyan A.,Golovanov G.,Koshurnikov E. K.,Lobanov Y. Yu.,Olshevskiy A. G.,Piskun A. A.,Samartsev A.,Shimanski S.,Skachkov N. B.,Skachkova A. N.,Strokovsky E. A.,Tokmenin V.,Uzhinsky V.,Verkheev A.,Vodopianov A.,Zhuravlev N. I.,Branford D.,Watts D.,Böhm M.,Eyrich W.,Lehmann A.,Miehling D.,Pfaffinger M.,Quin N.,Robison L.,Seth K.,Xiao T.,Bettoni D.,Ali A.,Hamdi A.,Himmelreich M.,Krebs M.,Nakhoul S.,Nerling F.,Belousov A.,Kisel I.,Kozlov G.,Pugach M.,Zyzak M.,Bianchi N.,Gianotti P.,Lucherini V.,Bracco G.,Bettner Y.,Bodenschatz S.,Brinkmann K. T.,Brück L.,Diehl S.,Dormenev V.,Düren M.,Erlen T.,Föhl K.,Hahn C.,Hayrapetyan A.,Hofmann J.,Kegel S.,Kesselkaul M.,Köseoglu I.,Kripko A.,Kühn W.,Lange J. S.,Metag V.,Moritz M.,Nanova M.,Novotny R.,Orsich P.,Pereira-de-Lira J.,Peter M.,Sachs M.,Schmidt M.,Schubert R.,Stenzel H.,Straube M.,Strickert M.,Thöring U.,Wasem T.,Wohlfahrt B.,Zaunick H. G.,Tomasi-Gustafsson E.,Glazier D.,Ireland D.,Seitz B.,Deepak P. N.,Kulkarni A.,Kappert R.,Kavatsyuk M.,Loehner H.,Messchendorp J.,Rodin V.,Schakel P.,Vejdani S.,Dutta K.,Kalita K.,Huang G.,Liu D.,Peng H.,Qi H.,Sun Y.,Zhou X.,Kunze M.,Azizi K.,Derichs A.,Dosdall R.,Esmail W.,Gillitzer A.,Goldenbaum F.,Grunwald D.,Jokhovets L.,Kannika J.,Kulessa P.,Orfanitski S.,Pérez Andrade G.,Prasuhn D.,Prencipe E.,Pütz J.,Ritman J.,Rosenthal E.,Schadmand S.,Schmitz R.,Scholl A.,Sefzick T.,Serdyuk V.,Stockmanns T.,Veretennikov D.,Wintz P.,Wüstner P.,Xu H.,Zhou Y.,Cao X.,Hu Q.,Li Z.,Li H.,Liang Y.,Ma X.,Rigato V.,Isaksson L.,Achenbach P.,Aycock A.,Corell O.,Denig A.,Distler M.,Hoek M.,Lauth W.,Leithoff H. H.,Liu Z.,Merkel H.,Müller U.,Pochodzalla J.,Schlimme S.,Sfienti C.,Thiel M.,Zambrana M.,Ahmed S.,Bleser S.,Bölting M.,Capozza L.,Dbeyssi A.,Ehret A.,Grasemann P.,Klasen R.,Kliemt R.,Maas F.,Maldaner S.,Morales Morales C.,Motzko C.,Noll O.,Pflüger S.,Rodríguez Piñeiro D.,Schupp F.,Steinen M.,Wolff S.,Zimmermann I.,Fedorov A.,Kazlou D.,Korzhik M.,Missevitch O.,Balashoff A.,Boukharov A.,Malyshev O.,Balanutsa P.,Chernetsky V.,Demekhin A.,Dolgolenko A.,Fedorets P.,Gerasimov A.,Golubev A.,Goryachev V.,Kantsyrev A.,Kirin D. Y.,Kristi N.,Ladygina E.,Luschevskaya E.,Matveev V. A.,Panjushkin V.,Stavinskiy A. V.,Basant K. N.,Kumawat H.,Roy B.,Saxena A.,Yogesh S.,Bonaventura D.,Brand P.,Fritzsch C.,Grieser S.,Hargens C.,Hergemöller A. K.,Hetz B.,Hüsken N.,Kellers J.,Khoukaz A.,Bumrungkoh D.,Herold C.,Khosonthongkee K.,Kobdaj C.,Limphirat A.,Manasatitpong K.,Nasawad T.,Pongampai S.,Simantathammakul T.,Srisawad P.,Wongprachanukul N.,Yan Y.,Yu C.,Zhang X.,Zhu W.,Blinov A. E.,Kononov S.,Kravchenko E. A.,Antokhin E.,Barnyakov A. Yu.,Beloborodov K.,Blinov V. E.,Kuyanov I. A.,Pivovarov S.,Pyata E.,Tikhonov Y.,Kunne R.,Ramstein B.,Hunter G.,Lattery M.,Pace H.,Boca G.,Duda D.,Finger M.,Finger, M.,Kveton A.,Pesek M.,Peskova M.,Prochazka I.,Slunecka M.,Volf M.,Gallus P.,Jary V.,Korchak O.,Marcisovsky M.,Neue G.,Novy J.,Tomasek L.,Tomasek M.,Virius M.,Vrba V.,Abramov V.,Bukreeva S.,Chernichenko S.,Derevschikov A.,Ferapontov V.,Goncharenko Y.,Levin A.,Maslova E.,Melnik Y.,Meschanin A.,Minaev N.,Mochalov V.,Moiseev V.,Morozov D.,Nogach L.,Poslavskiy S.,Ryazantsev A.,Ryzhikov S.,Semenov P.,Shein I.,Uzunian A.,Vasiliev A.,Yakutin A.,Roy U.,Yabsley B.,Belostotski S.,Fedotov G.,Gavrilov G.,Izotov A.,Manaenkov S.,Miklukho O.,Zhdanov A.,Atac A.,Bäck T.,Cederwall B.,Makonyi K.,Preston M.,Tegner P. E.,Wölbing D.,Gandhi K.,Rai A. K.,Godre S.,Crede V.,Dobbs S.,Eugenio P.,Lersch D.,Calvo D.,De Remigis P.,Filippi A.,Mazza G.,Rivetti A.,Wheadon R.,Bussa M. P.,Spataro S.,Iazzi F.,Lavagno A.,Martin A.,Akram A.,Calen H.,Ikegami Andersson W.^ORCID,Johansson T.,Kupsc A.,Marciniewski P.,Papenbrock M.,Regina J.,Schönning K.^ORCID,Wolke M.,Diaz J.,Pothodi Chackara V.,Chlopik A.,Kesik G.,Melnychuk D.,Tarasiuk J.,Wojciechowski M.,Wronka S.,Zwieglinski B.,Amsler C.,Bühler P.,Kratochwil N.,Marton J.,Nalti W.,Steinschaden D.,Widmann E.,Zimmermann S.,Zmeskal J.

Abstract

AbstractThe antiproton experiment PANDA at FAIR is designed to bring hadron physics to a new level in terms of scope, precision and accuracy. In this work, its unique capability for studies of hyperons is outlined. We discuss ground-state hyperons as diagnostic tools to study non-perturbative aspects of the strong interaction, and fundamental symmetries. New simulation studies have been carried out for two benchmark hyperon-antihyperon production channels:

$${\bar{p}}p \rightarrow {\bar{\varLambda }}\varLambda $$

p ¯ p → Λ ¯ Λ and

$${\bar{p}}p \rightarrow {\bar{\varXi }}^+\varXi ^-$$

p ¯ p → Ξ ¯ + Ξ - . The results, presented in detail in this paper, show that hyperon-antihyperon pairs from these reactions can be exclusively reconstructed with high efficiency and very low background contamination. In addition, the polarisation and spin correlations have been studied, exploiting the weak, self-analysing decay of hyperons and antihyperons. Two independent approaches to the finite efficiency have been applied and evaluated: one standard multidimensional efficiency correction approach, and one efficiency independent approach. The applicability of the latter was thoroughly evaluated for all channels, beam momenta and observables. The standard method yields good results in all cases, and shows that spin observables can be studied with high precision and accuracy already in the first phase of data taking with PANDA.

Funder

Uppsala University

Publisher

Springer Science and Business Media LLC

Subject

Nuclear and High Energy Physics

Link

https://link.springer.com/content/pdf/10.1140/epja/s10050-021-00386-y.pdf

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