Hadronic energy resolution of a highly granular scintillator-steel hadron calorimeter using software compensation techniques

C. Adloff; J. Blaha; J. J. Blaising; C. Drancourt; A. Espargilière; R. Gaglione; N. Geffroy; Y. Karyotakis; J. Prast; G. Vouters; K. Francis; J. Repond; J. Smith; L. Xia; E. Baldolemar; J. Li; S. T. Park; M. Sosebee; A. P. White; J. Yu; T. Buanes; G. Eigen; Y. Mikami; N. K. Watson; T. Goto; G. Mavromanolakis; M. A. Thomson; D. R. Ward; W. Yan; D. Benchekroun; A. Hoummada; Y. Khoulaki; M. Benyamna; C. Cârloganu; F. Fehr; P. Gay; S. Manen; L. Royer; G. C. Blazey; A. Dyshkant; J. G.R. Lima; V. Zutshi; J. Y. Hostachy; L. Morin; U. Cornett; D. David; G. Falley; K. Gadow; P. Göttlicher; C. Günter; B. Hermberg; S. Karstensen; F. Krivan; A. I. Lucaci-Timoce; S. Lu; B. Lutz; S. Morozov; V. Morgunov; M. Reinecke; F. Sefkow; P. Smirnov; M. Terwort; A. Vargas-Trevino; N. Feege; E. Garutti; I. Marchesini; M. Ramilli; P. Eckert; T. Harion; A. Kaplan; H. Ch Schultz-Coulon; W. Shen; R. Stamen; A. Tadday; B. Bilki; E. Norbeck; Y. Onel; G. W. Wilson; K. Kawagoe; P. D. Dauncey; A. M. Magnan; M. Wing; F. Salvatore; E. Calvo Alamillo; M. C. Fouz; J. Puerta-Pelayo; V. Balagura; B. Bobchenko; M. Chadeeva; M. Danilov; A. Epifantsev; O. Markin; R. Mizuk; E. Novikov; V. Rusinov; E. Tarkovsky; N. Kirikova; V. Kozlov; P. Smirnov; Y. Soloviev; P. Buzhan; B. Dolgoshein; A. Ilyin; V. Kantserov; V. Kaplin; A. Karakash; E. Popova; S. Smirnov; C. Kiesling; S. Pfau; K. Seidel; F. Simon; C. Soldner; M. Szalay; M. Tesar; L. Weuste; J. Bonis; B. Bouquet; S. Callier; P. Cornebise; Ph Doublet; F. Dulucq; M. Faucci Giannelli; J. Fleury; H. Li; G. Martin-Chassard; F. Richard; Ch De La Taille; R. Pöschl; L. Raux; N. Seguin-Moreau; F. Wicek; M. Anduze; V. Boudry; J. C. Brient; D. Jeans; P. Mora De Freitas; G. Musat; M. Reinhard; M. Ruan; H. Videau; B. Bulanek; J. Zacek; J. Cvach; P. Gallus; M. Havranek; M. Janata; J. Kvasnicka; D. Lednicky; M. Marcisovsky; I. Polak; J. Popule; L. Tomasek; M. Tomasek; P. Ruzicka; P. Sicho; J. Smolik; V. Vrba; J. Zalesak; B. Belhorma; H. Ghazlane; T. Takeshita; S. Uozumi; J. Sauer; S. Weber; C. Zeitnitz

doi:10.1088/1748-0221/7/09/P09017

Hadronic energy resolution of a highly granular scintillator-steel hadron calorimeter using software compensation techniques

C. Adloff
, J. Blaha
, J. J. Blaising
, C. Drancourt
, A. Espargilière
, R. Gaglione
, N. Geffroy
, Y. Karyotakis
, J. Prast
, G. Vouters
, K. Francis
, J. Repond
, J. Smith
, L. Xia
, E. Baldolemar
, J. Li
, S. T. Park
, M. Sosebee
, A. P. White
, J. Yu

T. Buanes, G. Eigen, Y. Mikami, N. K. Watson, T. Goto, G. Mavromanolakis, M. A. Thomson, D. R. Ward, W. Yan, D. Benchekroun, A. Hoummada, Y. Khoulaki, M. Benyamna, C. Cârloganu, F. Fehr, P. Gay, S. Manen, L. Royer, G. C. Blazey, A. Dyshkant, J. G.R. Lima, V. Zutshi, J. Y. Hostachy, L. Morin, U. Cornett, D. David, G. Falley, K. Gadow, P. Göttlicher, C. Günter, B. Hermberg, S. Karstensen, F. Krivan, A. I. Lucaci-Timoce, S. Lu, B. Lutz, S. Morozov, V. Morgunov, M. Reinecke, F. Sefkow, P. Smirnov, M. Terwort, A. Vargas-Trevino, N. Feege, E. Garutti, I. Marchesini, M. Ramilli, P. Eckert, T. Harion, A. Kaplan, H. Ch Schultz-Coulon, W. Shen, R. Stamen, A. Tadday, B. Bilki, E. Norbeck, Y. Onel, G. W. Wilson, K. Kawagoe, P. D. Dauncey, A. M. Magnan, M. Wing, F. Salvatore, E. Calvo Alamillo, M. C. Fouz, J. Puerta-Pelayo, V. Balagura, B. Bobchenko, M. Chadeeva, M. Danilov, A. Epifantsev, O. Markin, R. Mizuk, E. Novikov, V. Rusinov, E. Tarkovsky, N. Kirikova, V. Kozlov, P. Smirnov, Y. Soloviev, P. Buzhan, B. Dolgoshein, A. Ilyin, V. Kantserov, V. Kaplin, A. Karakash, E. Popova, S. Smirnov, C. Kiesling, S. Pfau, K. Seidel, F. Simon, C. Soldner, M. Szalay, M. Tesar, L. Weuste, J. Bonis, B. Bouquet, S. Callier, P. Cornebise, Ph Doublet, F. Dulucq, M. Faucci Giannelli, J. Fleury, H. Li, G. Martin-Chassard, F. Richard, Ch De La Taille, R. Pöschl, L. Raux, N. Seguin-Moreau, F. Wicek, M. Anduze, V. Boudry, J. C. Brient, D. Jeans, P. Mora De Freitas, G. Musat, M. Reinhard, M. Ruan, H. Videau, B. Bulanek, J. Zacek, J. Cvach, P. Gallus, M. Havranek, M. Janata, J. Kvasnicka, D. Lednicky, M. Marcisovsky, I. Polak, J. Popule, L. Tomasek, M. Tomasek, P. Ruzicka, P. Sicho, J. Smolik, V. Vrba, J. Zalesak, B. Belhorma, H. Ghazlane, T. Takeshita, S. Uozumi, J. Sauer, S. Weber, C. Zeitnitz

Université Savoie Mont Blanc
Argonne National Laboratory
University of Texas at Arlington
University of Bergen
University of Birmingham
University of Cambridge
European Organization for Nuclear Research
University of Science and Technology of China
Université Hassan II Aïn Chock - Casablanca et LASAARE
Université Blaise Pascal
Northern Illinois University
Laboratoire de Physique Subatomique et de Cosmologie de Grenoble
c/o DESY
Institute for Theoretical and Experimental Physics
Universität Hamburg
University of Heidelberg
University of Iowa
University of Kansas
Kyushu University
Imperial College London
University College London
Royal Holloway University of London
University of Sussex
Centro de Investigaciones Energéticas Medioambientales y Tecnológicas (CIEMAT)
P.N. Lebedev Physical Institute of the Russian Academy of Sciences
National Research Nuclear University MEPhI
Max-Planck-Institut für Physik
Université Paris-Sud
Charles University
Institute of Physics of the Czech Academy of Sciences
Centre National de l'Energie des Sciences Techniques Nucleaires
Shinshu University
Bergische Universität Gesamthochschule Wuppertal

Research output: Contribution to journal › Article › peer-review

57 Citations (Scopus)

Abstract

The energy resolution of a highly granular 1 m³ analogue scintillator-steel hadronic calorimeter is studied using charged pions with energies from 10 GeV to 80 GeV at the CERN SPS. The energy resolution for single hadrons is determined to be approximately 58%/E/GeV. This resolution is improved to approximately 45%/E/GeV with software compensation techniques. These techniques take advantage of the event-by-event information about the substructure of hadronic showers which is provided by the imaging capabilities of the calorimeter. The energy reconstruction is improved either with corrections based on the local energy density or by applying a single correction factor to the event energy sum derived from a global measure of the shower energy density. The application of the compensation algorithms to geant4 simulations yield resolution improvements comparable to those observed for real data.

Original language	English
Article number	P09017
Journal	Journal of Instrumentation
Volume	7
Issue number	9
DOIs	https://doi.org/10.1088/1748-0221/7/09/P09017
Publication status	Published - 1 Sept 2012

Keywords

Calorimeter methods
Calorimeters
Pattern recognition, cluster finding, calibration and fitting methods
Performance of High Energy Physics Detectors

Access to Document

10.1088/1748-0221/7/09/P09017

Cite this

Adloff, C., Blaha, J., Blaising, J. J., Drancourt, C., Espargilière, A., Gaglione, R., Geffroy, N., Karyotakis, Y., Prast, J., Vouters, G., Francis, K., Repond, J., Smith, J., Xia, L., Baldolemar, E., Li, J., Park, S. T., Sosebee, M., White, A. P., ... Zeitnitz, C. (2012). Hadronic energy resolution of a highly granular scintillator-steel hadron calorimeter using software compensation techniques. Journal of Instrumentation, 7(9), Article P09017. https://doi.org/10.1088/1748-0221/7/09/P09017

@article{4a852f3bb12246269225d82252d68726,

title = "Hadronic energy resolution of a highly granular scintillator-steel hadron calorimeter using software compensation techniques",

abstract = "The energy resolution of a highly granular 1 m3 analogue scintillator-steel hadronic calorimeter is studied using charged pions with energies from 10 GeV to 80 GeV at the CERN SPS. The energy resolution for single hadrons is determined to be approximately 58\%/E/GeV. This resolution is improved to approximately 45\%/E/GeV with software compensation techniques. These techniques take advantage of the event-by-event information about the substructure of hadronic showers which is provided by the imaging capabilities of the calorimeter. The energy reconstruction is improved either with corrections based on the local energy density or by applying a single correction factor to the event energy sum derived from a global measure of the shower energy density. The application of the compensation algorithms to geant4 simulations yield resolution improvements comparable to those observed for real data.",

keywords = "Calorimeter methods, Calorimeters, Pattern recognition, cluster finding, calibration and fitting methods, Performance of High Energy Physics Detectors",

author = "C. Adloff and J. Blaha and Blaising, \{J. J.\} and C. Drancourt and A. Espargili{\`e}re and R. Gaglione and N. Geffroy and Y. Karyotakis and J. Prast and G. Vouters and K. Francis and J. Repond and J. Smith and L. Xia and E. Baldolemar and J. Li and Park, \{S. T.\} and M. Sosebee and White, \{A. P.\} and J. Yu and T. Buanes and G. Eigen and Y. Mikami and Watson, \{N. K.\} and T. Goto and G. Mavromanolakis and Thomson, \{M. A.\} and Ward, \{D. R.\} and W. Yan and D. Benchekroun and A. Hoummada and Y. Khoulaki and M. Benyamna and C. C{\^a}rloganu and F. Fehr and P. Gay and S. Manen and L. Royer and Blazey, \{G. C.\} and A. Dyshkant and Lima, \{J. G.R.\} and V. Zutshi and Hostachy, \{J. Y.\} and L. Morin and U. Cornett and D. David and G. Falley and K. Gadow and P. G{\"o}ttlicher and C. G{\"u}nter and B. Hermberg and S. Karstensen and F. Krivan and Lucaci-Timoce, \{A. I.\} and S. Lu and B. Lutz and S. Morozov and V. Morgunov and M. Reinecke and F. Sefkow and P. Smirnov and M. Terwort and A. Vargas-Trevino and N. Feege and E. Garutti and I. Marchesini and M. Ramilli and P. Eckert and T. Harion and A. Kaplan and Schultz-Coulon, \{H. Ch\} and W. Shen and R. Stamen and A. Tadday and B. Bilki and E. Norbeck and Y. Onel and Wilson, \{G. W.\} and K. Kawagoe and Dauncey, \{P. D.\} and Magnan, \{A. M.\} and M. Wing and F. Salvatore and \{Calvo Alamillo\}, E. and Fouz, \{M. C.\} and J. Puerta-Pelayo and V. Balagura and B. Bobchenko and M. Chadeeva and M. Danilov and A. Epifantsev and O. Markin and R. Mizuk and E. Novikov and V. Rusinov and E. Tarkovsky and N. Kirikova and V. Kozlov and P. Smirnov and Y. Soloviev and P. Buzhan and B. Dolgoshein and A. Ilyin and V. Kantserov and V. Kaplin and A. Karakash and E. Popova and S. Smirnov and C. Kiesling and S. Pfau and K. Seidel and F. Simon and C. Soldner and M. Szalay and M. Tesar and L. Weuste and J. Bonis and B. Bouquet and S. Callier and P. Cornebise and Ph Doublet and F. Dulucq and \{Faucci Giannelli\}, M. and J. Fleury and H. Li and G. Martin-Chassard and F. Richard and \{De La Taille\}, Ch and R. P{\"o}schl and L. Raux and N. Seguin-Moreau and F. Wicek and M. Anduze and V. Boudry and Brient, \{J. C.\} and D. Jeans and \{Mora De Freitas\}, P. and G. Musat and M. Reinhard and M. Ruan and H. Videau and B. Bulanek and J. Zacek and J. Cvach and P. Gallus and M. Havranek and M. Janata and J. Kvasnicka and D. Lednicky and M. Marcisovsky and I. Polak and J. Popule and L. Tomasek and M. Tomasek and P. Ruzicka and P. Sicho and J. Smolik and V. Vrba and J. Zalesak and B. Belhorma and H. Ghazlane and T. Takeshita and S. Uozumi and J. Sauer and S. Weber and C. Zeitnitz",

year = "2012",

month = sep,

day = "1",

doi = "10.1088/1748-0221/7/09/P09017",

language = "English",

volume = "7",

journal = "Journal of Instrumentation",

issn = "1748-0221",

publisher = "Institute of Physics",

number = "9",

}

Adloff, C, Blaha, J, Blaising, JJ, Drancourt, C, Espargilière, A, Gaglione, R, Geffroy, N, Karyotakis, Y, Prast, J, Vouters, G, Francis, K, Repond, J, Smith, J, Xia, L, Baldolemar, E, Li, J, Park, ST, Sosebee, M, White, AP, Yu, J, Buanes, T, Eigen, G, Mikami, Y, Watson, NK, Goto, T, Mavromanolakis, G, Thomson, MA, Ward, DR, Yan, W, Benchekroun, D, Hoummada, A, Khoulaki, Y, Benyamna, M, Cârloganu, C, Fehr, F, Gay, P, Manen, S, Royer, L, Blazey, GC, Dyshkant, A, Lima, JGR, Zutshi, V, Hostachy, JY, Morin, L, Cornett, U, David, D, Falley, G, Gadow, K, Göttlicher, P, Günter, C, Hermberg, B, Karstensen, S, Krivan, F, Lucaci-Timoce, AI, Lu, S, Lutz, B, Morozov, S, Morgunov, V, Reinecke, M, Sefkow, F, Smirnov, P, Terwort, M, Vargas-Trevino, A, Feege, N, Garutti, E, Marchesini, I, Ramilli, M, Eckert, P, Harion, T, Kaplan, A, Schultz-Coulon, HC, Shen, W, Stamen, R, Tadday, A, Bilki, B, Norbeck, E, Onel, Y, Wilson, GW, Kawagoe, K, Dauncey, PD, Magnan, AM, Wing, M, Salvatore, F, Calvo Alamillo, E, Fouz, MC, Puerta-Pelayo, J, Balagura, V, Bobchenko, B, Chadeeva, M, Danilov, M, Epifantsev, A, Markin, O, Mizuk, R, Novikov, E, Rusinov, V, Tarkovsky, E, Kirikova, N, Kozlov, V, Smirnov, P, Soloviev, Y, Buzhan, P, Dolgoshein, B, Ilyin, A, Kantserov, V, Kaplin, V, Karakash, A, Popova, E, Smirnov, S, Kiesling, C, Pfau, S, Seidel, K, Simon, F, Soldner, C, Szalay, M, Tesar, M, Weuste, L, Bonis, J, Bouquet, B, Callier, S, Cornebise, P, Doublet, P, Dulucq, F, Faucci Giannelli, M, Fleury, J, Li, H, Martin-Chassard, G, Richard, F, De La Taille, C, Pöschl, R, Raux, L, Seguin-Moreau, N, Wicek, F, Anduze, M, Boudry, V, Brient, JC, Jeans, D, Mora De Freitas, P, Musat, G, Reinhard, M, Ruan, M, Videau, H, Bulanek, B, Zacek, J, Cvach, J, Gallus, P, Havranek, M, Janata, M, Kvasnicka, J, Lednicky, D, Marcisovsky, M, Polak, I, Popule, J, Tomasek, L, Tomasek, M, Ruzicka, P, Sicho, P, Smolik, J, Vrba, V, Zalesak, J, Belhorma, B, Ghazlane, H, Takeshita, T, Uozumi, S, Sauer, J, Weber, S & Zeitnitz, C 2012, 'Hadronic energy resolution of a highly granular scintillator-steel hadron calorimeter using software compensation techniques', Journal of Instrumentation, vol. 7, no. 9, P09017. https://doi.org/10.1088/1748-0221/7/09/P09017

TY - JOUR

T1 - Hadronic energy resolution of a highly granular scintillator-steel hadron calorimeter using software compensation techniques

AU - Adloff, C.

AU - Blaha, J.

AU - Blaising, J. J.

AU - Drancourt, C.

AU - Espargilière, A.

AU - Gaglione, R.

AU - Geffroy, N.

AU - Karyotakis, Y.

AU - Prast, J.

AU - Vouters, G.

AU - Francis, K.

AU - Repond, J.

AU - Smith, J.

AU - Xia, L.

AU - Baldolemar, E.

AU - Li, J.

AU - Park, S. T.

AU - Sosebee, M.

AU - White, A. P.

AU - Yu, J.

AU - Buanes, T.

AU - Eigen, G.

AU - Mikami, Y.

AU - Watson, N. K.

AU - Goto, T.

AU - Mavromanolakis, G.

AU - Thomson, M. A.

AU - Ward, D. R.

AU - Yan, W.

AU - Benchekroun, D.

AU - Hoummada, A.

AU - Khoulaki, Y.

AU - Benyamna, M.

AU - Cârloganu, C.

AU - Fehr, F.

AU - Gay, P.

AU - Manen, S.

AU - Royer, L.

AU - Blazey, G. C.

AU - Dyshkant, A.

AU - Lima, J. G.R.

AU - Zutshi, V.

AU - Hostachy, J. Y.

AU - Morin, L.

AU - Cornett, U.

AU - David, D.

AU - Falley, G.

AU - Gadow, K.

AU - Göttlicher, P.

AU - Günter, C.

AU - Hermberg, B.

AU - Karstensen, S.

AU - Krivan, F.

AU - Lucaci-Timoce, A. I.

AU - Lu, S.

AU - Lutz, B.

AU - Morozov, S.

AU - Morgunov, V.

AU - Reinecke, M.

AU - Sefkow, F.

AU - Smirnov, P.

AU - Terwort, M.

AU - Vargas-Trevino, A.

AU - Feege, N.

AU - Garutti, E.

AU - Marchesini, I.

AU - Ramilli, M.

AU - Eckert, P.

AU - Harion, T.

AU - Kaplan, A.

AU - Schultz-Coulon, H. Ch

AU - Shen, W.

AU - Stamen, R.

AU - Tadday, A.

AU - Bilki, B.

AU - Norbeck, E.

AU - Onel, Y.

AU - Wilson, G. W.

AU - Kawagoe, K.

AU - Dauncey, P. D.

AU - Magnan, A. M.

AU - Wing, M.

AU - Salvatore, F.

AU - Calvo Alamillo, E.

AU - Fouz, M. C.

AU - Puerta-Pelayo, J.

AU - Balagura, V.

AU - Bobchenko, B.

AU - Chadeeva, M.

AU - Danilov, M.

AU - Epifantsev, A.

AU - Markin, O.

AU - Mizuk, R.

AU - Novikov, E.

AU - Rusinov, V.

AU - Tarkovsky, E.

AU - Kirikova, N.

AU - Kozlov, V.

AU - Smirnov, P.

AU - Soloviev, Y.

AU - Buzhan, P.

AU - Dolgoshein, B.

AU - Ilyin, A.

AU - Kantserov, V.

AU - Kaplin, V.

AU - Karakash, A.

AU - Popova, E.

AU - Smirnov, S.

AU - Kiesling, C.

AU - Pfau, S.

AU - Seidel, K.

AU - Simon, F.

AU - Soldner, C.

AU - Szalay, M.

AU - Tesar, M.

AU - Weuste, L.

AU - Bonis, J.

AU - Bouquet, B.

AU - Callier, S.

AU - Cornebise, P.

AU - Doublet, Ph

AU - Dulucq, F.

AU - Faucci Giannelli, M.

AU - Fleury, J.

AU - Li, H.

AU - Martin-Chassard, G.

AU - Richard, F.

AU - De La Taille, Ch

AU - Pöschl, R.

AU - Raux, L.

AU - Seguin-Moreau, N.

AU - Wicek, F.

AU - Anduze, M.

AU - Boudry, V.

AU - Brient, J. C.

AU - Jeans, D.

AU - Mora De Freitas, P.

AU - Musat, G.

AU - Reinhard, M.

AU - Ruan, M.

AU - Videau, H.

AU - Bulanek, B.

AU - Zacek, J.

AU - Cvach, J.

AU - Gallus, P.

AU - Havranek, M.

AU - Janata, M.

AU - Kvasnicka, J.

AU - Lednicky, D.

AU - Marcisovsky, M.

AU - Polak, I.

AU - Popule, J.

AU - Tomasek, L.

AU - Tomasek, M.

AU - Ruzicka, P.

AU - Sicho, P.

AU - Smolik, J.

AU - Vrba, V.

AU - Zalesak, J.

AU - Belhorma, B.

AU - Ghazlane, H.

AU - Takeshita, T.

AU - Uozumi, S.

AU - Sauer, J.

AU - Weber, S.

AU - Zeitnitz, C.

PY - 2012/9/1

Y1 - 2012/9/1

N2 - The energy resolution of a highly granular 1 m3 analogue scintillator-steel hadronic calorimeter is studied using charged pions with energies from 10 GeV to 80 GeV at the CERN SPS. The energy resolution for single hadrons is determined to be approximately 58%/E/GeV. This resolution is improved to approximately 45%/E/GeV with software compensation techniques. These techniques take advantage of the event-by-event information about the substructure of hadronic showers which is provided by the imaging capabilities of the calorimeter. The energy reconstruction is improved either with corrections based on the local energy density or by applying a single correction factor to the event energy sum derived from a global measure of the shower energy density. The application of the compensation algorithms to geant4 simulations yield resolution improvements comparable to those observed for real data.

AB - The energy resolution of a highly granular 1 m3 analogue scintillator-steel hadronic calorimeter is studied using charged pions with energies from 10 GeV to 80 GeV at the CERN SPS. The energy resolution for single hadrons is determined to be approximately 58%/E/GeV. This resolution is improved to approximately 45%/E/GeV with software compensation techniques. These techniques take advantage of the event-by-event information about the substructure of hadronic showers which is provided by the imaging capabilities of the calorimeter. The energy reconstruction is improved either with corrections based on the local energy density or by applying a single correction factor to the event energy sum derived from a global measure of the shower energy density. The application of the compensation algorithms to geant4 simulations yield resolution improvements comparable to those observed for real data.

KW - Calorimeter methods

KW - Calorimeters

KW - Pattern recognition, cluster finding, calibration and fitting methods

KW - Performance of High Energy Physics Detectors

U2 - 10.1088/1748-0221/7/09/P09017

DO - 10.1088/1748-0221/7/09/P09017

M3 - Article

AN - SCOPUS:84867942528

SN - 1748-0221

VL - 7

JO - Journal of Instrumentation

JF - Journal of Instrumentation

IS - 9

M1 - P09017

ER -

Hadronic energy resolution of a highly granular scintillator-steel hadron calorimeter using software compensation techniques

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Keywords

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