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This report describes the physics case, the resulting detector requirements,
and the evolving detector concepts for the experimental program at the
Electron-Ion Collider (EIC). The EIC will be a powerful new high-luminosity
facility in the United States with the capability to collide high-energy
electron beams with high-energy proton and ion beams, providing access to those
regions in the nucleon and nuclei where their structure is dominated by gluons.
Moreover, polarized beams in the EIC will give unprecedented access to the
spatial and spin structure of the proton, neutron, and light ions. The studies
leading to this document were commissioned and organized by the EIC User Group
with the objective of advancing the state and detail of the physics program and
developing detector concepts that meet the emerging requirements in preparation
for the realization of the EIC. The effort aims to provide the basis for
further development of concepts for experimental equipment best suited for the
science needs, including the importance of two complementary detectors and
interaction regions.
This report consists of three volumes. Volume I is an executive summary of
our findings and developed concepts. In Volume II we describe studies of a wide
range of physics measurements and the emerging requirements on detector
acceptance and performance. Volume III discusses general-purpose detector
concepts and the underlying technologies to meet the physics requirements.
These considerations will form the basis for a world-class experimental program
that aims to increase our understanding of the fundamental structure of all
visible matter
Science Requirements and Detector Concepts for the Electron-Ion Collider: EIC Yellow Report
R. Abdul Khalek;A. Accardi;J. Adam;D. Adamiak;W. Akers;M. Albaladejo;A. Al-bataineh;M. G. Alexeev;F. Ameli;P. Antonioli;N. Armesto;W. R. Armstrong;M. Arratia;J. Arrington;A. Asaturyan;M. Asai;E. C. Aschenauer;S. Aune;H. Avagyan;C. Ayerbe Gayoso;B. Azmoun;A. Bacchetta;M. D. Baker;F. Barbosa;L. Barion;K. N. Barish;P. C. Barry;M. Battaglieri;A. Bazilevsky;N. K. Behera;F. Benmokhtar;V. V. Berdnikov;J. C. Bernauer;V. Bertone;S. Bhattacharya;C. Bissolotti;D. Boer;M. Boglione;M. Bondì;P. Boora;I. Borsa;F. Bossù;G. Bozzi;J. D. Brandenburg;N. Brei;A. Bressan;W. K. Brooks;S. Bufalino;M. H. S. Bukhari;V. Burkert;N. H. Buttimore;A. Camsonne;A. Celentano;F. G. Celiberto;W. Chang;C. Chatterjee;K. Chen;T. Chetry;T. Chiarusi;Y. -T. Chien;M. Chiosso;X. Chu;E. Chudakov;G. Cicala;E. Cisbani;I. C. Cloet;C. Cocuzza;P. L. Cole;D. Colella;J. L. Collins II;M. Constantinou;M. Contalbrigo;G. Contin;R. Corliss;W. Cosyn;A. Courtoy;J. Crafts;R. Cruz-Torres;R. C. Cuevas;U. D'Alesio;S. Dalla Torre;D. Das;S. S. Dasgupta;C. Da Silva;W. Deconinck;M. Defurne;W. DeGraw;K. Dehmelt;A. Del Dotto;F. Delcarro;A. Deshpande;W. Detmold;R. De Vita;M. Diefenthaler;C. Dilks;D. U. Dixit;S. Dulat;A. Dumitru;R. Dupré;J. M. Durham;M. G. Echevarria;L. El Fassi;D. Elia;R. Ent;R. Esha;J. J. Ethier;O. Evdokimov;K. O. Eyser;C. Fanelli;R. Fatemi;S. Fazio;C. Fernandez-Ramirez;M. Finger;M. Finger Jr.;D. Fitzgerald;C. Flore;T. Frederico;I. Friščić;S. Fucini;S. Furletov;Y. Furletova;C. Gal;L. Gamberg;H. Gao;P. Garg;D. Gaskell;K. Gates;M. B. Gay Ducati;M. Gericke;G. Gil da Silveira;F. -X. Girod;D. I. Glazier;K. Gnanvo;V. P. Goncalves;L. Gonella;J. O. Gonzalez Hernandez;Y. Goto;F. Grancagnolo;L. C. Greiner;W. Guryn;V. Guzey;Y. Hatta;M. Hattawy;F. Hauenstein;X. He;T. K. Hemmick;O. Hen;G. Heyes;D. W. Higinbotham;A. N. Hiller Blin;T. J. Hobbs;M. Hohlmann;T. Horn;T. -J. Hou;J. Huang;Q. Huang;G. M. Huber;C. E. Hyde;G. Iakovidis;Y. Ilieva;B. V. Jacak;P. M. Jacobs;M. Jadhav;Z. Janoska;A. Jentsch;T. Jezo;X. Jing;P. G. Jones;K. Joo;S. Joosten;V. Kafka;N. Kalantarians;G. Kalicy;D. Kang;Z. B. Kang;K. Kauder;S. J. D. Kay;C. E. Keppel;J. Kim;A. Kiselev;M. Klasen;S. Klein;H. T. Klest;O. Korchak;A. Kostina;P. Kotko;Y. V. Kovchegov;M. Krelina;S. Kuleshov;S. Kumano;K. S. Kumar;R. Kumar;L. Kumar;K. Kumerički;A. Kusina;K. Kutak;Y. S. Lai;K. Lalwani;T. Lappi;J. Lauret;M. Lavinsky;D. Lawrence;D. Lednicky;C. Lee;K. Lee;S. H. Lee;S. Levorato;H. Li;S. Li;W. Li;X. Li;X. Li;W. B. Li;T. Ligonzo;H. Liu;M. X. Liu;X. Liu;S. Liuti;N. Liyanage;C. Lorcé;Z. Lu;G. Lucero;N. S. Lukow;E. Lunghi;R. Majka;Y. Makris;I. Mandjavidze;S. Mantry;H. Mäntysaari;F. Marhauser;P. Markowitz;L. Marsicano;A. Mastroserio;V. Mathieu;Y. Mehtar-Tani;W. Melnitchouk;L. Mendez;A. Metz;Z. -E. Meziani;C. Mezrag;M. Mihovilovič;R. Milner;M. Mirazita;H. Mkrtchyan;A. Mkrtchyan;V. Mochalov;V. Moiseev;M. M. Mondal;A. Morreale;D. Morrison;L. Motyka;H. Moutarde;C. Muñoz Camacho;F. Murgia;M. J. Murray;P. Musico;P. Nadel-Turonski;P. M. Nadolsky;J. Nam;P. R. Newman;D. Neyret;D. Nguyen;E. R. Nocera;F. Noferini;F. Noto;A. S. Nunes;V. A. Okorokov;F. Olness;J. D. Osborn;B. S. Page;S. Park;A. Parker;K. Paschke;B. Pasquini;H. Paukkunen;S. Paul;C. Pecar;I. L. Pegg;C. Pellegrino;C. Peng;L. Pentchev;R. Perrino;F. Petriello;R. Petti;A. Pilloni;C. Pinkenburg;B. Pire;C. Pisano;D. Pitonyak;A. A. Poblaguev;T. Polakovic;M. Posik;M. Potekhin;R. Preghenella;S. Preins;A. Prokudin;P. Pujahari;M. L. Purschke;J. R. Pybus;M. Radici;R. Rajput-Ghoshal;P. E. Reimer;M. Rinaldi;F. Ringer;C. D. Roberts;S. Rodini;J. Rojo;D. Romanov;P. Rossi;E. Santopinto;M. Sarsour;R. Sassot;N. Sato;B. Schenke;W. B. Schmidke;I. Schmidt;A. Schmidt;B. Schmookler;G. Schnell;P. Schweitzer;J. Schwiening;I. Scimemi;S. Scopetta;J. Segovia;R. Seidl;S. Sekula;K. Semenov-Tian-Shanskiy;D. Y. Shao;N. Sherrill;E. Sichtermann;M. Siddikov;A. Signori;B. K. Singh;S. Širca;K. Slifer;W. Slominski;D. Sokhan;W. E. Sondheim;Y. Song;O. Soto;H. Spiesberger;A. M. Stasto;P. Stepanov;G. Sterman;J. R. Stevens;I. W. Stewart;I. Strakovsky;M. Strikman;M. Sturm;M. L. Stutzman;M. Sullivan;B. Surrow;P. Svihra;S. Syritsyn;A. Szczepaniak;P. Sznajder;H. Szumila-Vance;L. Szymanowski;A. S. Tadepalli;J. D. Tapia Takaki;G. F. Tassielli;J. Terry;F. Tessarotto;K. Tezgin;L. Tomasek;F. Torales Acosta;P. Tribedy;A. Tricoli;Triloki;S. Tripathi;R. L. Trotta;O. D. Tsai;Z. Tu;C. Tuvè;T. Ullrich;M. Ungaro;G. M. Urciuoli;A. Valentini;P. Vancura;M. Vandenbroucke;C. Van Hulse;G. Varner;R. Venugopalan;I. Vitev;A. Vladimirov;G. Volpe;A. Vossen;E. Voutier;J. Wagner;S. Wallon;H. Wang;Q. Wang;X. Wang;S. Y. Wei;C. Weiss;T. Wenaus;H. Wennlöf;N. Wickramaarachchi;A. Wikramanayake;D. Winney;C. P. Wong;C. Woody;L. Xia;B. W. Xiao;J. Xie;H. Xing;Q. H. Xu;J. Zhang;S. Zhang;Z. Zhang;Z. W. Zhao;Y. X. Zhao;L. Zheng;Y. Zhou;P. Zurita
2021
Abstract
This report describes the physics case, the resulting detector requirements,
and the evolving detector concepts for the experimental program at the
Electron-Ion Collider (EIC). The EIC will be a powerful new high-luminosity
facility in the United States with the capability to collide high-energy
electron beams with high-energy proton and ion beams, providing access to those
regions in the nucleon and nuclei where their structure is dominated by gluons.
Moreover, polarized beams in the EIC will give unprecedented access to the
spatial and spin structure of the proton, neutron, and light ions. The studies
leading to this document were commissioned and organized by the EIC User Group
with the objective of advancing the state and detail of the physics program and
developing detector concepts that meet the emerging requirements in preparation
for the realization of the EIC. The effort aims to provide the basis for
further development of concepts for experimental equipment best suited for the
science needs, including the importance of two complementary detectors and
interaction regions.
This report consists of three volumes. Volume I is an executive summary of
our findings and developed concepts. In Volume II we describe studies of a wide
range of physics measurements and the emerging requirements on detector
acceptance and performance. Volume III discusses general-purpose detector
concepts and the underlying technologies to meet the physics requirements.
These considerations will form the basis for a world-class experimental program
that aims to increase our understanding of the fundamental structure of all
visible matter
Physics - Instrumentation and Detectors; Physics - Instrumentation and Detectors; High Energy Physics - Experiment; High Energy Physics - Phenomenology; Nuclear Experiment; Nuclear Theory
R. Abdul Khalek; A. Accardi; J. Adam; D. Adamiak; W. Akers; M. Albaladejo; A. Al-bataineh; M. G. Alexeev; F. Ameli; P. Antonioli; N. Armesto; W. R. Armstrong; M. Arratia; J. Arrington; A. Asaturyan; M. Asai; E. C. Aschenauer; S. Aune; H. Avagyan; C. Ayerbe Gayoso; B. Azmoun; A. Bacchetta; M. D. Baker; F. Barbosa; L. Barion; K. N. Barish; P. C. Barry; M. Battaglieri; A. Bazilevsky; N. K. Behera; F. Benmokhtar; V. V. Berdnikov; J. C. Bernauer; V. Bertone; S. Bhattacharya; C. Bissolotti; D. Boer; M. Boglione; M. Bondì; P. Boora; I. Borsa; F. Bossù; G. Bozzi; J. D. Brandenburg; N. Brei; A. Bressan; W. K. Brooks; S. Bufalino; M. H. S. Bukhari; V. Burkert; N. H. Buttimore; A. Camsonne; A. Celentano; F. G. Celiberto; W. Chang; C. Chatterjee; K. Chen; T. Chetry; T. Chiarusi; Y. -T. Chien; M. Chiosso; X. Chu; E. Chudakov; G. Cicala; E. Cisbani; I. C. Cloet; C. Cocuzza; P. L. Cole; D. Colella; J. L. Collins II; M. Constantinou; M. Contalbrigo; G. Contin; R. Corliss; W. Cosyn; A. Courtoy; J. Crafts; R. Cruz-Torres; R. C. Cuevas; U. D'Alesio; S. Dalla Torre; D. Das; S. S. Dasgupta; C. Da Silva; W. Deconinck; M. Defurne; W. DeGraw; K. Dehmelt; A. Del Dotto; F. Delcarro; A. Deshpande; W. Detmold; R. De Vita; M. Diefenthaler; C. Dilks; D. U. Dixit; S. Dulat; A. Dumitru; R. Dupré; J. M. Durham; M. G. Echevarria; L. El Fassi; D. Elia; R. Ent; R. Esha; J. J. Ethier; O. Evdokimov; K. O. Eyser; C. Fanelli; R. Fatemi; S. Fazio; C. Fernandez-Ramirez; M. Finger; M. Finger Jr.; D. Fitzgerald; C. Flore; T. Frederico; I. Friščić; S. Fucini; S. Furletov; Y. Furletova; C. Gal; L. Gamberg; H. Gao; P. Garg; D. Gaskell; K. Gates; M. B. Gay Ducati; M. Gericke; G. Gil da Silveira; F. -X. Girod; D. I. Glazier; K. Gnanvo; V. P. Goncalves; L. Gonella; J. O. Gonzalez Hernandez; Y. Goto; F. Grancagnolo; L. C. Greiner; W. Guryn; V. Guzey; Y. Hatta; M. Hattawy; F. Hauenstein; X. He; T. K. Hemmick; O. Hen; G. Heyes; D. W. Higinbotham; A. N. Hiller Blin; T. J. Hobbs; M. Hohlmann; T. Horn; T. -J. Hou; J. Huang; Q. Huang; G. M. Huber; C. E. Hyde; G. Iakovidis; Y. Ilieva; B. V. Jacak; P. M. Jacobs; M. Jadhav; Z. Janoska; A. Jentsch; T. Jezo; X. Jing; P. G. Jones; K. Joo; S. Joosten; V. Kafka; N. Kalantarians; G. Kalicy; D. Kang; Z. B. Kang; K. Kauder; S. J. D. Kay; C. E. Keppel; J. Kim; A. Kiselev; M. Klasen; S. Klein; H. T. Klest; O. Korchak; A. Kostina; P. Kotko; Y. V. Kovchegov; M. Krelina; S. Kuleshov; S. Kumano; K. S. Kumar; R. Kumar; L. Kumar; K. Kumerički; A. Kusina; K. Kutak; Y. S. Lai; K. Lalwani; T. Lappi; J. Lauret; M. Lavinsky; D. Lawrence; D. Lednicky; C. Lee; K. Lee; S. H. Lee; S. Levorato; H. Li; S. Li; W. Li; X. Li; X. Li; W. B. Li; T. Ligonzo; H. Liu; M. X. Liu; X. Liu; S. Liuti; N. Liyanage; C. Lorcé; Z. Lu; G. Lucero; N. S. Lukow; E. Lunghi; R. Majka; Y. Makris; I. Mandjavidze; S. Mantry; H. Mäntysaari; F. Marhauser; P. Markowitz; L. Marsicano; A. Mastroserio; V. Mathieu; Y. Mehtar-Tani; W. Melnitchouk; L. Mendez; A. Metz; Z. -E. Meziani; C. Mezrag; M. Mihovilovič; R. Milner; M. Mirazita; H. Mkrtchyan; A. Mkrtchyan; V. Mochalov; V. Moiseev; M. M. Mondal; A. Morreale; D. Morrison; L. Motyka; H. Moutarde; C. Muñoz Camacho; F. Murgia; M. J. Murray; P. Musico; P. Nadel-Turonski; P. M. Nadolsky; J. Nam; P. R. Newman; D. Neyret; D. Nguyen; E. R. Nocera; F. Noferini; F. Noto; A. S. Nunes; V. A. Okorokov; F. Olness; J. D. Osborn; B. S. Page; S. Park; A. Parker; K. Paschke; B. Pasquini; H. Paukkunen; S. Paul; C. Pecar; I. L. Pegg; C. Pellegrino; C. Peng; L. Pentchev; R. Perrino; F. Petriello; R. Petti; A. Pilloni; C. Pinkenburg; B. Pire; C. Pisano; D. Pitonyak; A. A. Poblaguev; T. Polakovic; M. Posik; M. Potekhin; R. Preghenella; S. Preins; A. Prokudin; P. Pujahari; M. L. Purschke; J. R. Pybus; M. Radici; R. Rajput-Ghoshal; P. E. Reimer; M. Rinaldi; F. Ringer; C. D. Roberts; S. Rodini; J. Rojo; D. Romanov; P. Rossi; E. Santopinto; M. Sarsour; R. Sassot; N. Sato; B. Schenke; W. B. Schmidke; I. Schmidt; A. Schmidt; B. Schmookler; G. Schnell; P. Schweitzer; J. Schwiening; I. Scimemi; S. Scopetta; J. Segovia; R. Seidl; S. Sekula; K. Semenov-Tian-Shanskiy; D. Y. Shao; N. Sherrill; E. Sichtermann; M. Siddikov; A. Signori; B. K. Singh; S. Širca; K. Slifer; W. Slominski; D. Sokhan; W. E. Sondheim; Y. Song; O. Soto; H. Spiesberger; A. M. Stasto; P. Stepanov; G. Sterman; J. R. Stevens; I. W. Stewart; I. Strakovsky; M. Strikman; M. Sturm; M. L. Stutzman; M. Sullivan; B. Surrow; P. Svihra; S. Syritsyn; A. Szczepaniak; P. Sznajder; H. Szumila-Vance; L. Szymanowski; A. S. Tadepalli; J. D. Tapia Takaki; G. F. Tassielli; J. Terry; F. Tessarotto; K. Tezgin; L. Tomasek; F. Torales Acosta; P. Tribedy; A. Tricoli; Triloki; S. Tripathi; R. L. Trotta; O. D. Tsai; Z. Tu; C. Tuvè; T. Ullrich; M. Ungaro; G. M. Urciuoli; A. Valentini; P. Vancura; M. Vandenbroucke; C. Van Hulse; G. Varner; R. Venugopalan; I. Vitev; A. Vladimirov; G. Volpe; A. Vossen; E. Voutier; J. Wagner; S. Wallon; H. Wang; Q. Wang; X. Wang; S. Y. Wei; C. Weiss; T. Wenaus; H. Wennlöf; N. Wickramaarachchi; A. Wikramanayake; D. Winney; C. P. Wong; C. Woody; L. Xia; B. W. Xiao; J. Xie; H. Xing; Q. H. Xu; J. Zhang; S. Zhang; Z. Zhang; Z. W. Zhao; Y. X. Zhao; L. Zheng; Y. Zhou; P. Zurita
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Utilizza questo identificativo per citare o creare un link a questo documento: http://hdl.handle.net/2318/1840835
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simulazione ASN
Il report seguente simula gli indicatori relativi alla produzione scientifica in relazione alle soglie ASN 2018-2020 del proprio SC/SSD. Si ricorda che il superamento dei valori soglia (almeno 2 su 3) è requisito necessario ma non sufficiente al conseguimento dell'abilitazione.
La simulazione si basa sui dati IRIS e presenta gli indicatori calcolati alla data indicata sul report. Si ricorda che in sede di domanda ASN presso il MIUR gli indicatori saranno invece calcolati a partire dal 1° gennaio rispettivamente del quinto/decimo/quindicesimo anno precedente la scadenza del quadrimestre di presentazione della domanda (art 2 del DM 598/2018).
In questa simulazione pertanto il valore degli indicatori potrà differire da quello conteggiato all’atto della domanda ASN effettuata presso il MIUR a seguito di:
Correzioni imputabili a eventuali periodi di congedo obbligatorio, che in sede di domanda ASN danno diritto a incrementi percentuali dei valori.
Presenza di eventuali errori di catalogazione e/o dati mancanti in IRIS
Variabilità nel tempo dei valori citazionali (per i settori bibliometrici)
Variabilità della finestra temporale considerata in funzione della sessione di domanda ASN a cui si partecipa.
La presente simulazione è stata realizzata sulla base delle regole riportate nel DM 598/2018 e dell'allegata Tabella A e delle specifiche definite all'interno del Focus Group Cineca relativo al modulo IRIS ER. Il Cineca non si assume alcuna responsabilità in merito all'uso che il diretto interessato o terzi faranno della simulazione.