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Optimization of the active absorber scheme for the protection of the Dispersion Suppressor

There are two main types of cold elements in IR7: quadrupole and dipole magnets (MQ and MB). According to predictions, these objects are to lose their superconducting properties if the spurious power densities reach about 1 and 5 mW/cm3, respectively. In order to protect these fragile components, 5...

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Autores principales: Magistris, M, Santana-Leitner, M, Assmann, R, Bracco, C, Brugger, M, Cerutti, F, Ferrari, A, Redaelli, S, Vlachoudis, V
Lenguaje:eng
Publicado: 2009
Materias:
Acceso en línea:http://cds.cern.ch/record/1194061
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author Magistris, M
Santana-Leitner, M
Assmann, R
Bracco, C
Brugger, M
Cerutti, F
Ferrari, A
Redaelli, S
Vlachoudis, V
author_facet Magistris, M
Santana-Leitner, M
Assmann, R
Bracco, C
Brugger, M
Cerutti, F
Ferrari, A
Redaelli, S
Vlachoudis, V
author_sort Magistris, M
collection CERN
description There are two main types of cold elements in IR7: quadrupole and dipole magnets (MQ and MB). According to predictions, these objects are to lose their superconducting properties if the spurious power densities reach about 1 and 5 mW/cm3, respectively. In order to protect these fragile components, 5 active absorbers (TCLA) were designed and a systematic study was launched to maximize the shielding efficiency of the absorber system for different configurations (locations and orientations). The TCLA's are identical to the secondary collimators (TCS), the only difference is found in the material of the jaw, which, initially, was set integrally to Cu (instead of C) and later included a small W insertion. This report summarizes the survey of cold element protection through TCLA insertion optimization.
id cern-1194061
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2009
record_format invenio
spelling cern-11940612019-09-30T06:29:59Zhttp://cds.cern.ch/record/1194061engMagistris, MSantana-Leitner, MAssmann, RBracco, CBrugger, MCerutti, FFerrari, ARedaelli, SVlachoudis, VOptimization of the active absorber scheme for the protection of the Dispersion SuppressorAccelerators and Storage RingsThere are two main types of cold elements in IR7: quadrupole and dipole magnets (MQ and MB). According to predictions, these objects are to lose their superconducting properties if the spurious power densities reach about 1 and 5 mW/cm3, respectively. In order to protect these fragile components, 5 active absorbers (TCLA) were designed and a systematic study was launched to maximize the shielding efficiency of the absorber system for different configurations (locations and orientations). The TCLA's are identical to the secondary collimators (TCS), the only difference is found in the material of the jaw, which, initially, was set integrally to Cu (instead of C) and later included a small W insertion. This report summarizes the survey of cold element protection through TCLA insertion optimization.LHC-Project-Note-423CERN-LHC-Project-Note-423oai:cds.cern.ch:11940612009-07-28
spellingShingle Accelerators and Storage Rings
Magistris, M
Santana-Leitner, M
Assmann, R
Bracco, C
Brugger, M
Cerutti, F
Ferrari, A
Redaelli, S
Vlachoudis, V
Optimization of the active absorber scheme for the protection of the Dispersion Suppressor
title Optimization of the active absorber scheme for the protection of the Dispersion Suppressor
title_full Optimization of the active absorber scheme for the protection of the Dispersion Suppressor
title_fullStr Optimization of the active absorber scheme for the protection of the Dispersion Suppressor
title_full_unstemmed Optimization of the active absorber scheme for the protection of the Dispersion Suppressor
title_short Optimization of the active absorber scheme for the protection of the Dispersion Suppressor
title_sort optimization of the active absorber scheme for the protection of the dispersion suppressor
topic Accelerators and Storage Rings
url http://cds.cern.ch/record/1194061
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