Response of the CALICE Si-W Electromagnetic Calorimeter Physics Prototype to Electrons
Response of the CALICE Si-W Electromagnetic Calorimeter Physics Prototype to Electrons
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DOI:
10.1016/j.nima.2009.07.026
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发表时间:
2008-11
影响因子:
1.4
通讯作者:
C. Adloff;Y. Karyotakis;J. Repond;Jaehoon Yu;G. Eigen;C. Hawkes;Y. Mikami;O. Miller;N. Watson;J. Wilson;T. Goto;G. Mavromanolakis;M. Thomson;D. Ward;W. Yan;D. Benchekroun;A. Hoummada;M. Krim;M. Benyamna;D. Boumediene;N. Brun;C. Cârloganu;F. Morisseau;G. Blazey;D. Chakraborty;A. Dyshkant;K. Francis;D. Hedin;G. Lima;V. Zutshi;J. Hostachy;L. Morin;N. D’ascenzo;U. Cornett;D. David;R. Fabbri;G. Falley;K. Gadow;E. Garutti;P. Göttlicher;T. Jung;S. Karstensen;V. Korbel;A. Lucaci-Timoce;Benjamin Lutz;N. Meyer;V. Morgunov;M. Reinecke;F. Sefkow;P. Smirnov;A. Vargas-Treviño;N. Wattimena;O. Wendt;N. Feege;M. Groll;J. Haller;R. Heuer;S. Richter;J. Samson;A. Kaplan;H. Schultz-Coulon;W. Shen;A. Tadday;B. Bilki;E. Norbeck;Y. Onel;E. Kim;N. Baek;Daijin Kim;K. Lee;Shih-Chang Lee;K. Kawagoe;Y. Tamura;D. Bowerman;P. Dauncey;A. Magnan;H. Yılmaz;O. Zorba;V. Bartsch;M. Postranecky;M. Warren;M. Wing;M. Giannelli;M. Green;F. Salvatore;M. Bedjidian;R. Kieffer;I. Laktineh;D. Bailey;R. Barlow;M. Kelly;R. Thompson;M. Danilov;E. Tarkovsky;N. Baranova;D. Karmanov;M. Korolev;M. Merkin;A. Voronin;A. Frey;S. Lu;K. Prothmann;F. Simon;B. Bouquet;S. Callier;P. Cornebise;J. Fleury;H. Li;F. Richard;C. Taille;R. Poeschl;L. Raux;M. Ruan;N. Seguin-Moreau;F. Wicek;M. Anduze;V. Boudry;J. Brient;G. Gaycken;P. D. Freitas;G. Musat;M. Reinhard;A. Rougé;J. Vanel;H. Videau;Ki-Hyeon Park;J. Ẑáček;J. Cvach;P. Gallus;M. Havranek;M. Janata;M. Marcisovsky;I. Polák;J. Popule;L. Tomášek;M. Tomášek;P. Ruzicka;P. Sicho;J. Smolík;V. Vrba;J. Zálešák;B. Belhorma;M. Belmir;S. Nam;I. Park;J. Yang;J. Chai;J. Kim;Guinyun Kim;J. Kang;Youngjoon Kwon
中科院分区:
文献类型:
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作者:
C. Adloff;Y. Karyotakis;J. Repond;Jaehoon Yu;G. Eigen;C. Hawkes;Y. Mikami;O. Miller;N. Watson;J. Wilson;T. Goto;G. Mavromanolakis;M. Thomson;D. Ward;W. Yan;D. Benchekroun;A. Hoummada;M. Krim;M. Benyamna;D. Boumediene;N. Brun;C. Cârloganu;F. Morisseau;G. Blazey;D. Chakraborty;A. Dyshkant;K. Francis;D. Hedin;G. Lima;V. Zutshi;J. Hostachy;L. Morin;N. D’ascenzo;U. Cornett;D. David;R. Fabbri;G. Falley;K. Gadow;E. Garutti;P. Göttlicher;T. Jung;S. Karstensen;V. Korbel;A. Lucaci-Timoce;Benjamin Lutz;N. Meyer;V. Morgunov;M. Reinecke;F. Sefkow;P. Smirnov;A. Vargas-Treviño;N. Wattimena;O. Wendt;N. Feege;M. Groll;J. Haller;R. Heuer;S. Richter;J. Samson;A. Kaplan;H. Schultz-Coulon;W. Shen;A. Tadday;B. Bilki;E. Norbeck;Y. Onel;E. Kim;N. Baek;Daijin Kim;K. Lee;Shih-Chang Lee;K. Kawagoe;Y. Tamura;D. Bowerman;P. Dauncey;A. Magnan;H. Yılmaz;O. Zorba;V. Bartsch;M. Postranecky;M. Warren;M. Wing;M. Giannelli;M. Green;F. Salvatore;M. Bedjidian;R. Kieffer;I. Laktineh;D. Bailey;R. Barlow;M. Kelly;R. Thompson;M. Danilov;E. Tarkovsky;N. Baranova;D. Karmanov;M. Korolev;M. Merkin;A. Voronin;A. Frey;S. Lu;K. Prothmann;F. Simon;B. Bouquet;S. Callier;P. Cornebise;J. Fleury;H. Li;F. Richard;C. Taille;R. Poeschl;L. Raux;M. Ruan;N. Seguin-Moreau;F. Wicek;M. Anduze;V. Boudry;J. Brient;G. Gaycken;P. D. Freitas;G. Musat;M. Reinhard;A. Rougé;J. Vanel;H. Videau;Ki-Hyeon Park;J. Ẑáček;J. Cvach;P. Gallus;M. Havranek;M. Janata;M. Marcisovsky;I. Polák;J. Popule;L. Tomášek;M. Tomášek;P. Ruzicka;P. Sicho;J. Smolík;V. Vrba;J. Zálešák;B. Belhorma;M. Belmir;S. Nam;I. Park;J. Yang;J. Chai;J. Kim;Guinyun Kim;J. Kang;Youngjoon Kwon
A prototype silicon–tungsten electromagnetic calorimeter (ECAL) for an international linear collider (ILC) detector was installed and tested during summer and autumn 2006 at CERN. The detector had 6480 silicon pads of dimension 1×1cm2. Data were collected with electron beams in the energy range 6–45GeV. The analysis described in this paper focuses on electromagnetic shower reconstruction and characterises the ECAL response to electrons in terms of energy resolution and linearity. The detector is linear to within approximately the 1% level and has a relative energy resolution of (16.53±0.14(stat)±0.4(syst))/E(GeV)⊕(1.07±0.07(stat)±0.1(syst))(%). The spatial uniformity and the time stability of the ECAL are also addressed.