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Accessing the deuteron source with pion-deuteron femtoscopy in Pb-Pb collisions at sNN=5.02 TeV

S. Acharya50, A. Agarwal133, G. Aglieri Rinella32, L. Aglietta24, M. Agnello29, N. Agrawal25, Z. Ahammed133, S. Ahmad15, S. U. Ahn71 et al. (ALICE Collaboration)

S. U. Ahn71, I. Ahuja36, A. Akindinov139, V. Akishina38, M. Al-Turany96, D. Aleksandrov139, B. Alessandro56, H. M. Alfanda6, R. Alfaro Molina67, B. Ali15, A. Alici25, N. Alizadehvandchali114, A. Alkin103, J. Alme20, G. Alocco24, T. Alt64, A. R. Altamura50, I. Altsybeev94, J. R. Alvarado44, M. N. Anaam6, C. Andrei45, N. Andreou113, A. Andronic124, E. Andronov139, V. Anguelov93, F. Antinori54, P. Antonioli51, N. Apadula73, H. Appelshäuser64, C. Arata72, S. Arcelli25, R. Arnaldi56, J. G. M. C. A. Arneiro109, I. C. Arsene19, M. Arslandok136, A. Augustinus32, R. Averbeck96, D. Averyanov139, M. D. Azmi15, H. Baba122, A. Badalà53, J. Bae103, Y. Bae103, Y. W. Baek40, X. Bai118, R. Bailhache64, Y. Bailung48, R. Bala90, A. Baldisseri128, B. Balis2, S. Bangalia116, Z. Banoo90, V. Barbasova36, F. Barile31, L. Barioglio56, M. Barlou77, B. Barman41, G. G. Barnaföldi46, L. S. Barnby113, E. Barreau102, V. Barret125, L. Barreto109, K. Barth32, E. Bartsch64, N. Bastid125, S. Basu74, G. Batigne102, D. 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Conesa Balbastre72, Z. Conesa del Valle129, G. Contin23, J. G. Contreras34, M. L. Coquet102, P. Cortese131,56, M. R. Cosentino111, F. Costa32, S. Costanza21, P. Crochet125, M. M. Czarnynoga134, A. Dainese54, G. Dange38, M. C. Danisch93, A. Danu63, P. Das32, S. Das4, A. R. Dash124, S. Dash47, A. De Caro28, G. de Cataldo50, J. de Cuveland38, A. De Falco22, D. De Gruttola28, N. De Marco56, C. De Martin23, S. De Pasquale28, R. Deb132, R. Del Grande94, L. Dello Stritto32, G. G. A. de Souza109,‡, P. Dhankher18, D. Di Bari31, M. Di Costanzo29, A. Di Mauro32, B. Di Ruzza130, B. Diab32, R. A. Diaz140, Y. Ding6, J. Ditzel64, R. Divià32, Ø. Djuvsland20, U. Dmitrieva139, A. Dobrin63, B. Dönigus64, J. M. Dubinski134, A. Dubla96, P. Dupieux125, N. Dzalaiova13, T. M. Eder124, R. J. Ehlers73, F. Eisenhut64, R. Ejima91, D. Elia50, B. Erazmus102, F. Ercolessi25, B. Espagnon129, G. Eulisse32, D. Evans99, S. Evdokimov139, L. Fabbietti94, M. Faggin32, J. Faivre72, F. Fan6, W. Fan73, T. Fang6, A. 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Isakov83, T. Isidori116, M. S. Islam47, S. Iurchenko139, M. Ivanov96, M. Ivanov13, V. Ivanov139, K. E. Iversen74, M. Jablonski2, B. Jacak18,73, N. Jacazio25, P. M. Jacobs73, S. Jadlovska105, J. Jadlovsky105, S. Jaelani81, C. Jahnke110, M. J. Jakubowska134, M. A. Janik134, S. Ji16, S. Jia10, T. Jiang10, A. A. P. Jimenez65, S. Jin10,∥, F. Jonas73, D. M. Jones117, J. M. Jowett32,96, J. Jung64, M. Jung64, A. Junique32, A. Jusko99, J. Kaewjai104, P. Kalinak60, A. Kalweit32, A. Karasu Uysal137, N. Karatzenis99, O. Karavichev139, T. Karavicheva139, E. Karpechev139, M. J. Karwowska134, U. Kebschull70, M. Keil32, B. Ketzer42, J. Keul64, S. S. Khade48, A. M. Khan118, S. Khan15, A. Khanzadeev139, Y. Kharlov139, A. Khatun116, A. Khuntia34, Z. Khuranova64, B. Kileng37, B. Kim103, C. Kim16, D. J. Kim115, D. Kim103, E. J. Kim69, G. Kim58, H. Kim58, J. Kim138, J. Kim58, J. Kim32,69, M. Kim18, S. Kim17, T. Kim138, K. Kimura91, S. Kirsch64, I. Kisel38, S. Kiselev139, A. Kisiel134, J. L. Klay5, J. 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Legrand45, G. Legras124, A. M. Lejeune34, T. M. Lelek2, R. C. Lemmon84,∥, I. León Monzón108, M. M. Lesch94, P. Lévai46, M. Li6, P. Li10, X. Li10, B. E. Liang-Gilman18, J. Lien119, R. Lietava99, I. Likmeta114, B. Lim24, H. Lim16, S. H. Lim16, S. Lin10, V. Lindenstruth38, C. Lippmann96, D. Liskova105, D. H. Liu6, J. Liu117, G. S. S. Liveraro110, I. M. Lofnes20, C. Loizides86, S. Lokos106, J. Lömker59, X. Lopez125, E. López Torres7, C. Lotteau126, P. Lu118,96, W. Lu6, Z. Lu10, F. V. Lugo67, J. Luo39, G. Luparello57, M. A. T. Johnson44, Y. G. Ma39, M. Mager32, A. Maire127, E. M. Majerz2, M. V. Makariev35, M. Malaev139, G. Malfattore51,25, N. M. Malik90, N. Malik15, S. K. Malik90, D. Mallick129, N. Mallick115, G. Mandaglio30,53, S. K. Mandal78, A. Manea63, V. Manko139, A. K. Manna48, F. Manso125, G. Mantzaridis94, V. Manzari50, Y. Mao6, R. W. Marcjan2, G. V. Margagliotti23, A. Margotti51, A. Marín96, C. Markert107, P. Martinengo32, M. I. Martínez44, G. Martínez García102, M. P. P. Martins32,109, S. Masciocchi96, M. Masera24, A. Masoni52, L. Massacrier129, O. Massen59, A. Mastroserio130,50, L. Mattei24,125, S. Mattiazzo27, A. Matyja106, F. Mazzaschi32, M. Mazzilli114, Y. Melikyan43, M. Melo109, A. Menchaca-Rocha67, J. E. M. Mendez65, E. Meninno101, A. S. Menon114, M. W. Menzel32,93, M. Meres13, L. Micheletti56, D. Mihai112, D. L. Mihaylov94, A. U. Mikalsen20, K. Mikhaylov140,139, N. Minafra116, D. Miśkowiec96, A. Modak57,132, B. Mohanty79, M. Mohisin Khan15,¶, M. A. Molander43, M. M. Mondal79, S. Monira134, C. Mordasini115, D. A. Moreira De Godoy124, I. Morozov139, A. Morsch32, T. Mrnjavac32, V. Muccifora49, S. Muhuri133, A. Mulliri22, M. G. Munhoz109, R. H. Munzer64, H. Murakami122, L. Musa32, J. Musinsky60, J. W. Myrcha134, N. B. Sundstrom59, B. Naik121, A. I. Nambrath18, B. K. Nandi47, R. Nania51, E. Nappi50, A. F. Nassirpour17, V. Nastase112, A. Nath93, N. F. Nathanson82, C. Nattrass120, K. Naumov18, M. N. Naydenov35, A. Neagu19, L. Nellen65, R. 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Zhang27,6, S. Zhang39, X. Zhang6, Y. Zhang118, Y. Zhang118, Z. Zhang6, M. Zhao10, V. Zherebchevskii139, Y. Zhi10, D. Zhou6, Y. Zhou82, J. Zhu54,6, S. Zhu96,118, Y. Zhu6, S. C. Zugravel56, and N. Zurlo132,55 (ALICE Collaboration)

  • *Also at Max-Planck-Institut fur Physik, Munich, Germany.
  • †Also at Italian National Agency for New Technologies, Energy and Sustainable Economic Development (ENEA), Bologna, Italy.
  • ‡Also at Instituto de Fisica da Universidade de Sao Paulo, Sao Paulo, Brazil.
  • §Also at Dipartimento DET del Politecnico di Torino, Turin, Italy.
  • ∥Deceased.
  • Also at Department of Applied Physics, Aligarh Muslim University, Aligarh, India.
  • **Also at Institute of Theoretical Physics, University of Wroclaw, Poland.
  • ††Also at Facultad de Ciencias, Universidad Nacional Autónoma de México, Mexico City, Mexico.

Phys. Rev. C 112, 064003 – Published 12 December, 2025

DOI: https://doi.org/10.1103/mrp4-z4hh

Abstract

Femtoscopy of nonidentical particle pairs has been instrumental for precision measurements of both two-particle sources and the final-state interactions in high-energy elementary and heavy-ion collisions. The majority of measurements assessing the source properties are based on identical particle pairs, providing direct access to the characteristics of the single-particle source. The work in this paper demonstrates, via femtoscopy measurements of charged pion-deuteron pairs in Pb-Pb collisions at sNN=5.02 TeV, the feasibility of accessing the characteristics of the single-particle femtoscopic source by using particle pairs with large mass differences such as pions and deuterons. The first experimental results of the measurement of deuteron source sizes in ultrarelativistic heavy-ion collisions are presented. The results show good agreement with the trend derived from other charged hadrons such as pions, kaons, and protons as a function of transverse mass, indicating similar source properties.

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