The H1 lead/scintillating-fibre calorimeter

R. D. Appuhn; C. Arndt; E. Barrelet; R. Barschke; U. Bassler; V. Boudry; R. Buchholz; F. Brasse; D. Bruncko; S. Chechelnitski; B. Claxton; G. Cozzika; J. Cvach; S. Dagoret-Campagne; W. D. Dau; H. Deckers; T. Deckers; F. Descamps; M. Dirkmann; J. Dowdell; V. Efremenko; E. Eisenhandler; A. N. Eliseev; G. Falley; J. Ferencei; B. Fominykh; K. Gadow; U. Goerlach; L. A. Gorbov; I. Gorelov; M. Grewe; L. Hajduk; I. Herynek; J. Hladký; M. Hütte; H. Hutter; W. Janczur; J. Janoth; L. Jönsson; H. Kolanoski; V. Korbel; F. Kriváň; D. Lacour; F. Lamarche; M. P.J. Landon; B. Laforge; J. F. Laporte; F. Lehner; R. Maraček; K. Meier; A. Meyer; A. Migliori; F. Moreau; G. Müller; P. Murín; V. Nagovizin; T. C. Nicholls; D. Ozerov; E. Perez; J. P. Pharabod; R. Pöschl; K. Rybicki; A. Rostovtsev; C. Royon; S. Schleif; A. Schuhmacher; A. Semenov; V. Shekelyan; Y. Sirois; P. A. Smirnov; V. Solochenko; J. Špalek; S. Spielmann; H. Steiner; J. Stiewe; M. Taševský; V. Tchernyshov; K. Thiele; E. Tzamariudaki; S. Valkár; D. VanDenPlas; G. Villet; K. Wacker; A. Walther; M. Weber; D. Wegener; T. Wenk; J. Žáček; A. Zhokin; K. Zuber

doi:10.1016/S0168-9002(96)01171-0

The H1 lead/scintillating-fibre calorimeter

R. D. Appuhn
, C. Arndt
, E. Barrelet
, R. Barschke
, U. Bassler
, V. Boudry
, R. Buchholz
, F. Brasse
, D. Bruncko
, S. Chechelnitski
, B. Claxton
, G. Cozzika
, J. Cvach
, S. Dagoret-Campagne
, W. D. Dau
, H. Deckers
, T. Deckers
, F. Descamps
, M. Dirkmann
, J. Dowdell

V. Efremenko, E. Eisenhandler, A. N. Eliseev, G. Falley, J. Ferencei, B. Fominykh, K. Gadow, U. Goerlach, L. A. Gorbov, I. Gorelov, M. Grewe, L. Hajduk, I. Herynek, J. Hladký, M. Hütte, H. Hutter, W. Janczur, J. Janoth, L. Jönsson, H. Kolanoski, V. Korbel, F. Kriváň, D. Lacour, F. Lamarche, M. P.J. Landon, B. Laforge, J. F. Laporte, F. Lehner, R. Maraček, K. Meier, A. Meyer, A. Migliori, F. Moreau, G. Müller, P. Murín, V. Nagovizin, T. C. Nicholls, D. Ozerov, E. Perez, J. P. Pharabod, R. Pöschl, K. Rybicki, A. Rostovtsev, C. Royon, S. Schleif, A. Schuhmacher, A. Semenov, V. Shekelyan, Y. Sirois, P. A. Smirnov, V. Solochenko, J. Špalek, S. Spielmann, H. Steiner, J. Stiewe, M. Taševský, V. Tchernyshov, K. Thiele, E. Tzamariudaki, S. Valkár, D. VanDenPlas, G. Villet, K. Wacker, A. Walther, M. Weber, D. Wegener, T. Wenk, J. Žáček, A. Zhokin, K. Zuber

c/o DESY
Universités Paris VI and VII
Slovak Academy of Sciences
Institute for Theoretical and Experimental Physics
CCLRC Rutherford Appleton Laboratory
Institut Pierre Simon Laplace, CNRS and CEA
of Sciences
Christian-Albrechts-University Kiel
University of Dortmund
Queen Mary University of London
P.N. Lebedev Physical Institute of the Russian Academy of Sciences
Centre des Recherches Nucleaires
Institute for Nuclear Physics
University of Heidelberg
University of Birmingham
Ernest Orlando Lawrence Berkeley National Laboratory
Charles University

Résultats de recherche: Contribution à un journal › Article › Revue par des pairs

174 Citations (Scopus)

Résumé

The backward region of the H1 detector has been upgraded in order to provide improved measurement of the scattered electron in deep inelastic scattering events. The centerpiece of the upgrade is a high-resolution lead/scintillating-fibre calorimeter. The main design goals of the calorimeter are: good coverage of the region close to the beam pipe, high angular resolution and energy resolution of better than 2% for 30 GeV electrons. The calorimeter should be capable of providing coarse hadronic energy measurement and precise time information to suppress out-of-time background events at the first trigger level. It must be compact due to space restrictions. These requirements were fulfilled by constructing two separate calorimeter sections. The inner electromagnetic section is made of 0.5 mm scintillating plastic fibres embedded in a lead matrix. Its lead-to-fibre ratio is 2.3:1 by volume. The outer hadronic section consists of 1.0 mm diameter fibres with a lead-to-fibre ratio of 3.4:1. The mechanical construction of the new calorimeter and its assembly in the H1 detector are described.

langue originale	Anglais
Pages (de - à)	397-408
Nombre de pages	12
journal	Nuclear Instruments and Methods in Physics Research, Section A: Accelerators, Spectrometers, Detectors and Associated Equipment
Volume	386
Numéro de publication	2-3
Les DOIs	https://doi.org/10.1016/S0168-9002(96)01171-0
état	Publié - 21 févr. 1997

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10.1016/S0168-9002(96)01171-0

Contient cette citation

Appuhn, R. D., Arndt, C., Barrelet, E., Barschke, R., Bassler, U., Boudry, V., Buchholz, R., Brasse, F., Bruncko, D., Chechelnitski, S., Claxton, B., Cozzika, G., Cvach, J., Dagoret-Campagne, S., Dau, W. D., Deckers, H., Deckers, T., Descamps, F., Dirkmann, M., ... Zuber, K. (1997). The H1 lead/scintillating-fibre calorimeter. Nuclear Instruments and Methods in Physics Research, Section A: Accelerators, Spectrometers, Detectors and Associated Equipment, 386(2-3), 397-408. https://doi.org/10.1016/S0168-9002(96)01171-0

@article{69487a6a5f2e4a3d8878d1799abe0d96,

title = "The H1 lead/scintillating-fibre calorimeter",

abstract = "The backward region of the H1 detector has been upgraded in order to provide improved measurement of the scattered electron in deep inelastic scattering events. The centerpiece of the upgrade is a high-resolution lead/scintillating-fibre calorimeter. The main design goals of the calorimeter are: good coverage of the region close to the beam pipe, high angular resolution and energy resolution of better than 2\% for 30 GeV electrons. The calorimeter should be capable of providing coarse hadronic energy measurement and precise time information to suppress out-of-time background events at the first trigger level. It must be compact due to space restrictions. These requirements were fulfilled by constructing two separate calorimeter sections. The inner electromagnetic section is made of 0.5 mm scintillating plastic fibres embedded in a lead matrix. Its lead-to-fibre ratio is 2.3:1 by volume. The outer hadronic section consists of 1.0 mm diameter fibres with a lead-to-fibre ratio of 3.4:1. The mechanical construction of the new calorimeter and its assembly in the H1 detector are described.",

keywords = "Calorimeter, Construction, Design, Fibre, H1",

author = "Appuhn, \{R. D.\} and C. Arndt and E. Barrelet and R. Barschke and U. Bassler and V. Boudry and R. Buchholz and F. Brasse and D. Bruncko and S. Chechelnitski and B. Claxton and G. Cozzika and J. Cvach and S. Dagoret-Campagne and Dau, \{W. D.\} and H. Deckers and T. Deckers and F. Descamps and M. Dirkmann and J. Dowdell and V. Efremenko and E. Eisenhandler and Eliseev, \{A. N.\} and G. Falley and J. Ferencei and B. Fominykh and K. Gadow and U. Goerlach and Gorbov, \{L. A.\} and I. Gorelov and M. Grewe and L. Hajduk and I. Herynek and J. Hladk{\'y} and M. H{\"u}tte and H. Hutter and W. Janczur and J. Janoth and L. J{\"o}nsson and H. Kolanoski and V. Korbel and F. Kriv{\'a}{\v n} and D. Lacour and F. Lamarche and Landon, \{M. P.J.\} and B. Laforge and Laporte, \{J. F.\} and F. Lehner and R. Mara{\v c}ek and K. Meier and A. Meyer and A. Migliori and F. Moreau and G. M{\"u}ller and P. Mur{\'i}n and V. Nagovizin and Nicholls, \{T. C.\} and D. Ozerov and E. Perez and Pharabod, \{J. P.\} and R. P{\"o}schl and K. Rybicki and A. Rostovtsev and C. Royon and S. Schleif and A. Schuhmacher and A. Semenov and V. Shekelyan and Y. Sirois and Smirnov, \{P. A.\} and V. Solochenko and J. {\v S}palek and S. Spielmann and H. Steiner and J. Stiewe and M. Ta{\v s}evsk{\'y} and V. Tchernyshov and K. Thiele and E. Tzamariudaki and S. Valk{\'a}r and D. VanDenPlas and G. Villet and K. Wacker and A. Walther and M. Weber and D. Wegener and T. Wenk and J. {\v Z}{\'a}{\v c}ek and A. Zhokin and K. Zuber",

year = "1997",

month = feb,

day = "21",

doi = "10.1016/S0168-9002(96)01171-0",

language = "English",

volume = "386",

pages = "397--408",

journal = "Nuclear Instruments and Methods in Physics Research, Section A: Accelerators, Spectrometers, Detectors and Associated Equipment",

issn = "0168-9002",

publisher = "Elsevier B.V.",

number = "2-3",

}

Appuhn, RD, Arndt, C, Barrelet, E, Barschke, R, Bassler, U , Boudry, V, Buchholz, R, Brasse, F, Bruncko, D, Chechelnitski, S, Claxton, B, Cozzika, G, Cvach, J, Dagoret-Campagne, S, Dau, WD, Deckers, H, Deckers, T, Descamps, F, Dirkmann, M, Dowdell, J, Efremenko, V, Eisenhandler, E, Eliseev, AN, Falley, G, Ferencei, J, Fominykh, B, Gadow, K, Goerlach, U, Gorbov, LA, Gorelov, I, Grewe, M, Hajduk, L, Herynek, I, Hladký, J, Hütte, M, Hutter, H, Janczur, W, Janoth, J, Jönsson, L, Kolanoski, H, Korbel, V, Kriváň, F, Lacour, D, Lamarche, F, Landon, MPJ, Laforge, B, Laporte, JF, Lehner, F, Maraček, R, Meier, K, Meyer, A, Migliori, A, Moreau, F, Müller, G, Murín, P, Nagovizin, V, Nicholls, TC, Ozerov, D, Perez, E, Pharabod, JP, Pöschl, R, Rybicki, K, Rostovtsev, A, Royon, C, Schleif, S, Schuhmacher, A, Semenov, A, Shekelyan, V, Sirois, Y, Smirnov, PA, Solochenko, V, Špalek, J, Spielmann, S, Steiner, H, Stiewe, J, Taševský, M, Tchernyshov, V, Thiele, K, Tzamariudaki, E, Valkár, S, VanDenPlas, D, Villet, G, Wacker, K, Walther, A, Weber, M, Wegener, D, Wenk, T, Žáček, J, Zhokin, A & Zuber, K 1997, 'The H1 lead/scintillating-fibre calorimeter', Nuclear Instruments and Methods in Physics Research, Section A: Accelerators, Spectrometers, Detectors and Associated Equipment, VOL. 386, Numéro 2-3, p. 397-408. https://doi.org/10.1016/S0168-9002(96)01171-0

TY - JOUR

T1 - The H1 lead/scintillating-fibre calorimeter

AU - Appuhn, R. D.

AU - Arndt, C.

AU - Barrelet, E.

AU - Barschke, R.

AU - Bassler, U.

AU - Boudry, V.

AU - Buchholz, R.

AU - Brasse, F.

AU - Bruncko, D.

AU - Chechelnitski, S.

AU - Claxton, B.

AU - Cozzika, G.

AU - Cvach, J.

AU - Dagoret-Campagne, S.

AU - Dau, W. D.

AU - Deckers, H.

AU - Deckers, T.

AU - Descamps, F.

AU - Dirkmann, M.

AU - Dowdell, J.

AU - Efremenko, V.

AU - Eisenhandler, E.

AU - Eliseev, A. N.

AU - Falley, G.

AU - Ferencei, J.

AU - Fominykh, B.

AU - Gadow, K.

AU - Goerlach, U.

AU - Gorbov, L. A.

AU - Gorelov, I.

AU - Grewe, M.

AU - Hajduk, L.

AU - Herynek, I.

AU - Hladký, J.

AU - Hütte, M.

AU - Hutter, H.

AU - Janczur, W.

AU - Janoth, J.

AU - Jönsson, L.

AU - Kolanoski, H.

AU - Korbel, V.

AU - Kriváň, F.

AU - Lacour, D.

AU - Lamarche, F.

AU - Landon, M. P.J.

AU - Laforge, B.

AU - Laporte, J. F.

AU - Lehner, F.

AU - Maraček, R.

AU - Meier, K.

AU - Meyer, A.

AU - Migliori, A.

AU - Moreau, F.

AU - Müller, G.

AU - Murín, P.

AU - Nagovizin, V.

AU - Nicholls, T. C.

AU - Ozerov, D.

AU - Perez, E.

AU - Pharabod, J. P.

AU - Pöschl, R.

AU - Rybicki, K.

AU - Rostovtsev, A.

AU - Royon, C.

AU - Schleif, S.

AU - Schuhmacher, A.

AU - Semenov, A.

AU - Shekelyan, V.

AU - Sirois, Y.

AU - Smirnov, P. A.

AU - Solochenko, V.

AU - Špalek, J.

AU - Spielmann, S.

AU - Steiner, H.

AU - Stiewe, J.

AU - Taševský, M.

AU - Tchernyshov, V.

AU - Thiele, K.

AU - Tzamariudaki, E.

AU - Valkár, S.

AU - VanDenPlas, D.

AU - Villet, G.

AU - Wacker, K.

AU - Walther, A.

AU - Weber, M.

AU - Wegener, D.

AU - Wenk, T.

AU - Žáček, J.

AU - Zhokin, A.

AU - Zuber, K.

PY - 1997/2/21

Y1 - 1997/2/21

N2 - The backward region of the H1 detector has been upgraded in order to provide improved measurement of the scattered electron in deep inelastic scattering events. The centerpiece of the upgrade is a high-resolution lead/scintillating-fibre calorimeter. The main design goals of the calorimeter are: good coverage of the region close to the beam pipe, high angular resolution and energy resolution of better than 2% for 30 GeV electrons. The calorimeter should be capable of providing coarse hadronic energy measurement and precise time information to suppress out-of-time background events at the first trigger level. It must be compact due to space restrictions. These requirements were fulfilled by constructing two separate calorimeter sections. The inner electromagnetic section is made of 0.5 mm scintillating plastic fibres embedded in a lead matrix. Its lead-to-fibre ratio is 2.3:1 by volume. The outer hadronic section consists of 1.0 mm diameter fibres with a lead-to-fibre ratio of 3.4:1. The mechanical construction of the new calorimeter and its assembly in the H1 detector are described.

AB - The backward region of the H1 detector has been upgraded in order to provide improved measurement of the scattered electron in deep inelastic scattering events. The centerpiece of the upgrade is a high-resolution lead/scintillating-fibre calorimeter. The main design goals of the calorimeter are: good coverage of the region close to the beam pipe, high angular resolution and energy resolution of better than 2% for 30 GeV electrons. The calorimeter should be capable of providing coarse hadronic energy measurement and precise time information to suppress out-of-time background events at the first trigger level. It must be compact due to space restrictions. These requirements were fulfilled by constructing two separate calorimeter sections. The inner electromagnetic section is made of 0.5 mm scintillating plastic fibres embedded in a lead matrix. Its lead-to-fibre ratio is 2.3:1 by volume. The outer hadronic section consists of 1.0 mm diameter fibres with a lead-to-fibre ratio of 3.4:1. The mechanical construction of the new calorimeter and its assembly in the H1 detector are described.

KW - Calorimeter

KW - Construction

KW - Design

KW - Fibre

KW - H1

U2 - 10.1016/S0168-9002(96)01171-0

DO - 10.1016/S0168-9002(96)01171-0

M3 - Article

AN - SCOPUS:0031069484

SN - 0168-9002

VL - 386

SP - 397

EP - 408

JO - Nuclear Instruments and Methods in Physics Research, Section A: Accelerators, Spectrometers, Detectors and Associated Equipment

JF - Nuclear Instruments and Methods in Physics Research, Section A: Accelerators, Spectrometers, Detectors and Associated Equipment

IS - 2-3

ER -

The H1 lead/scintillating-fibre calorimeter

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