Comptes Rendus
Ultra-high-energy cosmic rays / Rayons cosmiques de ultra-haute énergie
Cosmic rays from the knee to the ankle
[Rayons cosmiques du genou à la cheville]
Comptes Rendus. Physique, Ultra-high-energy cosmic rays: From the ankle to the tip of the spectrum, Volume 15 (2014) no. 4, pp. 300-308.

La forme et la composition du spectre des primaires ainsi que les anisotropies à grande échelle dans la distribution d'arrivée des rayons cosmiques sont des éléments clés pour comprendre l'origine, l'accélération et la propagation du rayonnement galactique. En dehors des particularités spectrales bien connues que sont le genou et la cheville, la mesure du spectre en énergie révèle également, entre ces deux particularités, une déviation claire, bien que moins prononcée, par rapport à une loi de puissance unique : le spectre se durcit jusqu'à 2×1016 eV et tombe ensuite à partir de 1017 eV. La composition en masse, quant à elle, devient plus lourde après le genou, et ce jusqu'à 1017 eV, valeur à partir de laquelle elle chute rapidement. Un durcissement de la composante légère au-dessus de 1017 eV a aussi été mesuré. De premières indications d'anisotropies dans les mesures des directions d'arrivée depuis l'hémisphère sud ont été rapportées à 1015 eV.

The shape and composition of the primary spectrum as well as the large-scale anisotropy in the arrival direction of cosmic rays are key elements to understand the origin, acceleration and propagation of the Galactic radiation. Besides the well-known knee and ankle features, the measured energy spectrum exhibits also a less pronounced but still clear deviation from a single power law between the knee and the ankle, with a spectral hardening at 2×1016 eV and a steepening at 1017 eV. The average mass composition gets heavier after the knee till 1017 eV, where a bending of the heavy component is observed. An indication of a hardening of the light component just above 1017 eV has been measured as well. First indications of anisotropy of the arrival direction in the southern hemisphere have been reported at 1015 eV.

Publié le :
DOI : 10.1016/j.crhy.2014.03.001
Keywords: Cosmic rays, Energy spectrum, Mass composition, Anisotropy, Knee, Ankle
Mots-clés : Rayons cosmiques, Spectre en énergie, Composition en masse, Anisotropies, Genou, Cheville

Mario Edoardo Bertaina 1

1 Department of Physics, University of Torino, Via Pietro Giuria, 1, 10125 Torino, Italy
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Mario Edoardo Bertaina. Cosmic rays from the knee to the ankle. Comptes Rendus. Physique, Ultra-high-energy cosmic rays: From the ankle to the tip of the spectrum, Volume 15 (2014) no. 4, pp. 300-308. doi : 10.1016/j.crhy.2014.03.001. https://comptes-rendus.academie-sciences.fr/physique/articles/10.1016/j.crhy.2014.03.001/

[1] A. Giuliani; et al.; AGILE Collaboration Astrophys. J., 742 (2011), p. L30

[2] M. Ackermann; et al.; FERMI-LAT Collaboration Science, 339 (2013), p. 807

[3] A.M. Hillas J. Phys. G, Nucl. Part. Phys., 31 (2005), p. R95

[4] T.K. Gaisser; T. Stanev; S. Tilav, 2013 | arXiv

[5] B. Peters Il Nuovo Cimento, 22 (1961), p. 800

[6] V. Berezinsky; A. Gazizov; S. Grigorieva Phys. Rev. D, 74 (2006), p. 043005

[7] A. Castellina; F. Donato, Planets, Stars and Stellar Systems, vol. 5, 2012

[8] M. Bertaina J. Phys. Soc. Jpn. Suppl. A, 78 (2009), p. 210

[9] T. Antoni; et al.; KASCADE Collaboration Astrophys. J., 602 (2004), p. 914

[10] M. Aglietta; et al.; EAS-TOP Collaboration Astropart. Phys., 19 (2003), p. 329

[11] M. Aglietta; et al.; EAS-TOP Collaboration Astropart. Phys., 21 (2004), p. 223

[12] B. Bartoli; et al.; ARGO Collaboration Phys. Rev. D, 85 (2012), p. 092005

[13] Y.S. Yoon; et al.; CREAM Collaboration Astrophys. J., 728 (2011), p. 122

[14] D. Heck et al., 1998 (Report FZKA 6019)

[15] G.V. Kulikov; G.B. Khristiansen J. Exp. Theor. Phys., 35 (1958), p. 635

[16] M. Nagano; et al.; AKENO Collaboration J. Phys. G, 18 (1992), p. 423

[17] M.A.K. Glasmacher; et al.; CASA-MIA Collaboration Astropart. Phys., 10 (1999), p. 291

[18] M. Aglietta; et al.; EAS-TOP Collaboration Astropart. Phys., 10 (1999), p. 1

[19] M. Aglietta; et al.; EAS-TOP Collaboration Astropart. Phys., 21 (2004), p. 583

[20] M. Aglietta; et al.; EAS-TOP Collaboration Astropart. Phys., 20 (2004), p. 641

[21] T. Antoni; et al.; KASCADE Collaboration Astropart. Phys., 24 (2005), p. 1

[22] M. Amenomori; et al.; TIBET-As Phys. Lett. B, 632 (2006), p. 58

[23] A.P. Garyaka; et al.; GAMMA Collaboration Astropart. Phys., 28 (2007), p. 169

[24] H. Tanaka; et al.; GRAPES Collaboration J. Phys. G, Nucl. Part. Phys., 39 (2012), p. 025201

[25] J.W. Fowler; et al.; CASA-BLANCA Collaboration Astropart. Phys., 15 (2001), p. 49

[26] F. Arqueros; et al.; HEGRA Collaboration Astron. Astrophys., 359 (2000), p. 682

[27] A.A. Ivanov; S.P. Knurenko; I.Y. Sleptsov; Yakutsk Collaboration New J. Phys., 11 (2009), p. 065008

[28] N. Budnev; et al.; TUNKA-25 Collaboration Astropart. Phys., 50–52 (2013), p. 18

[29] S. Ostapchenko Prog. Theor. Phys. Suppl., 193 (2012), p. 204

[30] A.P. Garyaka; et al.; GAMMA Collaboration J. Phys. G, Nucl. Part. Phys., 11 (2008), p. 115201

[31] V.V. Prosin; et al.; TUNKA-133 Collaboration 33rd ICRC, 2013, p. #0617

[32] M.G. Aartsen; et al.; ICE-TOP Collaboration Phys. Rev. D, 88 (2013), p. 042004

[33] M. Amenomori; et al.; TIBET-As Astrophys. J., 678 (2008), p. 1165

[34] W.D. Apel; et al.; KASCADE-Grande Collaboration Astropart. Phys., 36 (2012), p. 183

[35] W.D. Apel; KASCADE-Grande Collaboration Adv. Space Res. (2013) | DOI

[36] W.D. Apel; et al.; KASCADE-Grande Collaboration Astropart. Phys., 47 (2013), p. 54

[37] W.D. Apel; et al.; KASCADE-Grande Collaboration Nucl. Instrum. Methods A, 620 (2010), p. 202

[38] S.F. Berezhnev; et al.; Tunka-133 Collaboration Nucl. Instrum. Methods A, 692 (2012), p. 98

[39] R. Abbasi; et al.; IceTop Collaboration Nucl. Instrum. Methods A, 700 (2013), p. 188

[40] E.E. Korolsteva; et al.; QUEST Collaboration Nucl. Phys. B, Proc. Suppl., 165 (2007), p. 74

[41] J. Engel et al. Phys. Rev. D, 46 (1992), p. 5013

[42] S. Ostapchenko et al. Phys. Rev. D, 74 (2006), p. 014026/1

[43] T. Gaisser Astropart. Phys., 35 (2012), p. 801

[44] K. Werner et al. Phys. Rev. C, 74 (2006), p. 044902/1

[45] M. Bertaina; et al.; KASCADE-Grande Collaboration Astrophys. Space Sci. Trans., 7 (2011), p. 229

[46] D.R. Bergman; J.W. Belz J. Phys. G, 34 (2007), p. R359

[47] V. Bakatanov; et al.; BAKSAN Collaboration Astropart. Phys., 12 (1999), p. 19

[48] A. Chiavassa; et al.; KASCADE-Grande Collaboration 33rd ICRC, 2013, p. #0092

[49] W.D. Apel; et al.; KASCADE-Grande Collaboration Phys. Rev. Lett., 107 (2011), p. 171104

[50] W.D. Apel; et al.; KASCADE-Grande Collaboration Phys. Rev. D, 87 (2013), p. 081101(R)

[51] A. Tamburro; et al.; IceCube Collaboration, 2013 | arXiv

[52] K.-H. Kampert; M. Unger Astropart. Phys., 35 (2012), p. 660

[53] R. Iuppa; et al.; ARGO Collaboration J. Phys. Conf. Ser., 409 (2013), p. 012039

[54] A. Abdo; et al.; MILAGRO Collaboration Phys. Rev. Lett., 101 (2008), p. 221101

[55] M. Aglietta; et al.; EAS-TOP Collaboration Astrophys. J. Lett., 692 (2009), p. L130

[56] R. Abbasi; et al.; IceCube Collaboration Astrophys. J. Lett., 718 (2010), p. L194

[57] M. Amenomori; et al.; TIBET-AS Science, 314 (2006), p. 439

[58] P. Desiati; et al.; IceCube Collaboration, 2013 | arXiv

[59] A.H. Compton; I.A. Getting Phys. Rev., 47 (1935), p. 817

[60] A. Chiavassa; et al.; KASCADE-Grande Collaboration 33rd ICRC, 2013, p. #0093

[61] R. Bonino et al. Astrophys. J., 738 (2011), p. 67

[62] P. Abreu; et al.; Auger Collaboration Astropart. Phys., 34 (2011), p. 627

[63] E. Waxman Astrophys. J., 452 (1995), p. L1

[64] D. Allard Astropart. Phys., 39–40 (2012), p. 33

[65] J. Abraham; et al.; Auger Collaboration Nucl. Instrum. Methods, 523 (2004), p. 50

[66] T. Abu-Zayyad; et al.; TA Collaboration Nucl. Instrum. Methods A, 689 (2012), p. 87

[67] T.H.-J. Mathes; et al.; Auger Collaboration 32nd ICRC, 2011, p. #0761

[68] F. Sanchez; et al.; Auger Collaboration 32nd ICRC, 2011, p. #0742

[69] A. Aab et al. Auger Collaboration, 2013 | arXiv

  • A. Coleman; J. Eser; E. Mayotte; F. Sarazin; F. G. Schröder; D. Soldin; T. M. Venters; R. Aloisio; J. Alvarez-Muñiz; R. Alves Batista; D. Bergman; M. Bertaina; L. Caccianiga; O. Deligny; H. P. Dembinski; P. B. Denton; A. di Matteo; N. Globus; J. Glombitza; G. Golup; A. Haungs; J. R. Hörandel; T. R. Jaffe; J. L. Kelley; J. F. Krizmanic; L. Lu; J. N. Matthews; I. Mariş; R. Mussa; F. Oikonomou; T. Pierog; E. Santos; P. Tinyakov; Y. Tsunesada; M. Unger; A. Yushkov; M. G. Albrow; L. A. Anchordoqui; K. Andeen; E. Arnone; D. Barghini; E. Bechtol; J. A. Bellido; M. Casolino; A. Castellina; L. Cazon; R. Conceição; R. Cremonini; H. Dujmovic; R. Engel; G. Farrar; F. Fenu; S. Ferrarese; T. Fujii; D. Gardiol; M. Gritsevich; P. Homola; T. Huege; K. -H. Kampert; D. Kang; E. Kido; P. Klimov; K. Kotera; B. Kozelov; A. Leszczyńska; J. Madsen; L. Marcelli; M. Marisaldi; O. Martineau-Huynh; S. Mayotte; K. Mulrey; K. Murase; M. S. Muzio; S. Ogio; A. V. Olinto; Y. Onel; T. Paul; L. Piotrowski; M. Plum; B. Pont; M. Reininghaus; B. Riedel; F. Riehn; M. Roth; T. Sako; F. Schlüter; D. H. Shoemaker; J. Sidhu; I. Sidelnik; C. Timmermans; O. Tkachenko; D. Veberic; S. Verpoest; V. Verzi; J. Vícha; D. Winn; E. Zas; M. Zotov Ultra high energy cosmic rays The intersection of the Cosmic and Energy Frontiers, Astroparticle Physics, Volume 147 (2023) | DOI:10.1016/j.astropartphys.2022.102794
  • A. Coleman; J. Eser; E. Mayotte; F. Sarazin; F. G. Schröder; D. Soldin; T. M. Venters; R. Aloisio; J. Alvarez-Muñiz; R. Alves Batista; D. Bergman; M. Bertaina; L. Caccianiga; O. Deligny; H. P. Dembinski; P. B. Denton; A. di Matteo; N. Globus; J. Glombitza; G. Golup; A. Haungs; J. R. Hörandel; T. R. Jaffe; J. L. Kelley; J. F. Krizmanic; L. Lu; J. N. Matthews; I. Mariş; R. Mussa; F. Oikonomou; T. Pierog; E. Santos; P. Tinyakov; Y. Tsunesada; M. Unger; A. Yushkov; M. G. Albrow; L. A. Anchordoqui; K. Andeen; E. Arnone; D. Barghini; E. Bechtol; J. A. Bellido; M. Casolino; A. Castellina; L. Cazon; R. Conceição; R. Cremonini; H. Dujmovic; R. Engel; G. Farrar; F. Fenu; S. Ferrarese; T. Fujii; D. Gardiol; M. Gritsevich; P. Homola; T. Huege; K. -H. Kampert; D. Kang; E. Kido; P. Klimov; K. Kotera; B. Kozelov; A. Leszczyńska; J. Madsen; L. Marcelli; M. Marisaldi; O. Martineau-Huynh; S. Mayotte; K. Mulrey; K. Murase; M. S. Muzio; S. Ogio; A. V. Olinto; Y. Onel; T. Paul; L. Piotrowski; M. Plum; B. Pont; M. Reininghaus; B. Riedel; F. Riehn; M. Roth; T. Sako; F. Schlüter; D. H. Shoemaker; J. Sidhu; I. Sidelnik; C. Timmermans; O. Tkachenko; D. Veberic; S. Verpoest; V. Verzi; J. Vícha; D. Winn; E. Zas; M. Zotov Ultra high energy cosmic rays The intersection of the Cosmic and Energy Frontiers, Astroparticle Physics, Volume 149 (2023) | DOI:10.1016/j.astropartphys.2023.102819
  • S. B. Shaulov; L. I. Vil'danova; E. A. Kupriyanova; V. A. Ryabov; A. L. Shepetov Scaling violation in interaction of cosmic ray hadrons and the nature of the 3 PeV knee in the spectrum of primary cosmic rays, Journal of Physics G: Nuclear and Particle Physics, Volume 48 (2021) no. 12 | DOI:10.1088/1361-6471/ac2e58
  • R. I. Raikin; A. A. Lagutin; T. L. Serebryakova; N. V. Volkov; S. V. Soldatkin; E. M. Palkowski Cosmic Ray Mass Composition Problem: Toward Model-Independent Evaluation Based on the Analysis of the Spatial Structure of EAS Charged Components, Physics of Atomic Nuclei, Volume 84 (2021) no. 6, pp. 995-1006 | DOI:10.1134/s1063778821130275
  • A. Aab; P. Abreu; M. Aglietta; J. M. Albury; I. Allekotte; A. Almela; J. Alvarez Castillo; J. Alvarez-Muñiz; R. Alves Batista; G. A. Anastasi; L. Anchordoqui; B. Andrada; S. Andringa; C. Aramo; P. R. Araújo Ferreira; H. Asorey; P. Assis; G. Avila; A. M. Badescu; A. Bakalova; A. Balaceanu; F. Barbato; R. J. Barreira Luz; K. H. Becker; J. A. Bellido; C. Berat; M. E. Bertaina; X. Bertou; P. L. Biermann; T. Bister; J. Biteau; A. Blanco; J. Blazek; C. Bleve; M. Boháčová; D. Boncioli; C. Bonifazi; L. Bonneau Arbeletche; N. Borodai; A. M. Botti; J. Brack; T. Bretz; F. L. Briechle; P. Buchholz; A. Bueno; S. Buitink; M. Buscemi; K. S. Caballero-Mora; L. Caccianiga; L. Calcagni; A. Cancio; F. Canfora; I. Caracas; J. M. Carceller; R. Caruso; A. Castellina; F. Catalani; G. Cataldi; L. Cazon; M. Cerda; J. A. Chinellato; K. Choi; J. Chudoba; L. Chytka; R. W. Clay; A. C. Cobos Cerutti; R. Colalillo; A. Coleman; M. R. Coluccia; R. Conceição; A. Condorelli; G. Consolati; F. Contreras; F. Convenga; C. E. Covault; S. Dasso; K. Daumiller; B. R. Dawson; J. A. Day; R. M. de Almeida; J. de Jesús; S. J. de Jong; G. De Mauro; J. R. T. de Mello Neto; I. De Mitri; J. de Oliveira; D. de Oliveira Franco; V. de Souza; E. De Vito; J. Debatin; M. del Río; O. Deligny; H. Dembinski; N. Dhital; C. Di Giulio; A. Di Matteo; M. L. Díaz Castro; C. Dobrigkeit; J. C. D'Olivo; Q. Dorosti; R. C. dos Anjos; M. T. Dova; J. Ebr; R. Engel; I. Epicoco; M. Erdmann; C. O. Escobar; A. Etchegoyen; H. Falcke; J. Farmer; G. Farrar; A. C. Fauth; N. Fazzini; F. Feldbusch; F. Fenu; B. Fick; J. M. Figueira; A. Filipčič; T. Fodran; M. M. Freire; T. Fujii; A. Fuster; C. Galea; C. Galelli; B. García; A. L. Garcia Vegas; H. Gemmeke; F. Gesualdi; A. Gherghel-Lascu; P. L. Ghia; U. Giaccari; M. Giammarchi; M. Giller; J. Glombitza; F. Gobbi; F. Gollan; G. Golup; M. Gómez Berisso; P. F. Gómez Vitale; J. P. Gongora; N. González; I. Goos; D. Góra; A. Gorgi; M. Gottowik; T. D. Grubb; F. Guarino; G. P. Guedes; E. Guido; S. Hahn; R. Halliday; M. R. Hampel; P. Hansen; D. Harari; V. M. Harvey; A. Haungs; T. Hebbeker; D. Heck; G. C. Hill; C. Hojvat; J. R. Hörandel; P. Horvath; M. Hrabovský; T. Huege; J. Hulsman; A. Insolia; P. G. Isar; J. A. Johnsen; J. Jurysek; A. Kääpä; K. H. Kampert; B. Keilhauer; J. Kemp; H. O. Klages; M. Kleifges; J. Kleinfeller; M. Köpke; G. Kukec Mezek; B. L. Lago; D. LaHurd; R. G. Lang; M. A. Leigui de Oliveira; V. Lenok; A. Letessier-Selvon; I. Lhenry-Yvon; D. Lo Presti; L. Lopes; R. López; R. Lorek; Q. Luce; A. Lucero; A. Machado Payeras; M. Malacari; G. Mancarella; D. Mandat; B. C. Manning; J. Manshanden; P. Mantsch; S. Marafico; A. G. Mariazzi; I. C. Mariş; G. Marsella; D. Martello; H. Martinez; O. Martínez Bravo; M. Mastrodicasa; H. J. Mathes; J. Matthews; G. Matthiae; E. Mayotte; P. O. Mazur; G. Medina-Tanco; D. Melo; A. Menshikov; K. -D. Merenda; S. Michal; M. I. Micheletti; L. Miramonti; D. Mockler; S. Mollerach; F. Montanet; C. Morello; M. Mostafá; A. L. Müller; M. A. Muller; K. Mulrey; R. Mussa; M. Muzio; W. M. Namasaka; L. Nellen; P. H. Nguyen; M. Niculescu-Oglinzanu; M. Niechciol; D. Nitz; D. Nosek; V. Novotny; L. Nožka; A. Nucita; L. A. Núñez; M. Palatka; J. Pallotta; M. P. Panetta; P. Papenbreer; G. Parente; A. Parra; M. Pech; F. Pedreira; J. PÈ©kala; R. Pelayo; J. Peña-Rodriguez; J. Perez Armand; M. Perlin; L. Perrone; C. Peters; S. Petrera; T. Pierog; M. Pimenta; V. Pirronello; M. Platino; B. Pont; M. Pothast; P. Privitera; M. Prouza; A. Puyleart; S. Querchfeld; J. Rautenberg; D. Ravignani; M. Reininghaus; J. Ridky; F. Riehn; M. Risse; P. Ristori; V. Rizi; W. Rodrigues de Carvalho; G. Rodriguez Fernandez; J. Rodriguez Rojo; M. J. Roncoroni; M. Roth; E. Roulet; A. C. Rovero; P. Ruehl; S. J. Saffi; A. Saftoiu; F. Salamida; H. Salazar; G. Salina; J. D. Sanabria Gomez; F. Sánchez; E. M. Santos; E. Santos; F. Sarazin; R. Sarmento; C. Sarmiento-Cano; R. Sato; P. Savina; C. Schäfer; V. Scherini; H. Schieler; M. Schimassek; M. Schimp; F. Schlüter; D. Schmidt; O. Scholten; P. Schovánek; F. G. Schröder; S. Schröder; A. Schulz; S. J. Sciutto; M. Scornavacche; R. C. Shellard; G. Sigl; G. Silli; O. Sima; R. Šmída; P. Sommers; J. F. Soriano; J. Souchard; R. Squartini; M. Stadelmaier; D. Stanca; S. Stanič; J. Stasielak; P. Stassi; A. Streich; M. Suárez-Durán; T. Sudholz; T. Suomijärvi; A. D. Supanitsky; J. Šupík; Z. Szadkowski; A. Taboada; A. Tapia; C. Timmermans; O. Tkachenko; P. Tobiska; C. J. Todero Peixoto; B. Tomé; G. Torralba Elipe; A. Travaini; P. Travnicek; C. Trimarelli; M. Trini; M. Tueros; R. Ulrich; M. Unger; M. Urban; L. Vaclavek; M. Vacula; J. F. Valdés Galicia; I. Valiño; L. Valore; A. van Vliet; E. Varela; B. Vargas Cárdenas; A. Vásquez-Ramírez; D. Veberič; C. Ventura; I. D. Vergara Quispe; V. Verzi; J. Vicha; L. Villaseñor; J. Vink; S. Vorobiov; H. Wahlberg; A. A. Watson; M. Weber; A. Weindl; L. Wiencke; H. Wilczyński; T. Winchen; M. Wirtz; D. Wittkowski; B. Wundheiler; A. Yushkov; O. Zapparrata; E. Zas; D. Zavrtanik; M. Zavrtanik; L. Zehrer; A. Zepeda; M. Ziolkowski; F. Zuccarello; Pierre Auger Collaboration Features of the Energy Spectrum of Cosmic Rays above 2.5 ×1018 eV Using the Pierre Auger Observatory, Physical Review Letters, Volume 125 (2020) no. 12 | DOI:10.1103/physrevlett.125.121106
  • Julia Becker Tjus; Lukas Merten Closing in on the origin of Galactic cosmic rays using multimessenger information, Physics Reports, Volume 872 (2020), pp. 1-98 | DOI:10.1016/j.physrep.2020.05.002
  • Roman Raikin; Tatyana Serebryakova; Nikolay Volkov; Anatoly Lagutin, Journal of Physics: Conference Series, Volume 1181 (2019) no. 1 | DOI:10.1088/1742-6596/1181/1/012032
  • R. I. Raikin; T. L. Serebryakova; A. A. Lagutin; N. V. Volkov Improving the accuracy of cosmic ray mass composition estimation using the scale factor of the electron lateral distribution in air showers, Bulletin of the Russian Academy of Sciences: Physics, Volume 81 (2017) no. 4, pp. 450-452 | DOI:10.3103/s1062873817040360
  • R. Raikin; T. Serebryakova; A. Lagutin; N. Volkov, ISVHECRI 2016 - XIX International Symposium on Very High Energy Cosmic Ray Interactions, Moscow (LPI RAS), Russia, Edited by Pattison, B.; EPJ Web of Conferences, Volume 145 (2017) | DOI:10.1051/epjconf/201714519014
  • Anastasiya Fedosimova; Adigam Gaitinov; Ekaterina Grushevskaya; Igor Lebedev, ISVHECRI 2016 - XIX International Symposium on Very High Energy Cosmic Ray Interactions, Moscow (LPI RAS), Russia, Edited by Pattison, B.; EPJ Web of Conferences, Volume 145 (2017) | DOI:10.1051/epjconf/201714519009
  • Andreas Haungs, Journal of Physics: Conference Series, Volume 632 (2015) no. 1 | DOI:10.1088/1742-6596/632/1/012093

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