Cargando…

Design and Status of the Dipole Spectrometer Magnet for the ALICE Experiment

<P>Proposal of abstract for MT16, Tallahesse, Florida, 26th September to 2nd October 1999.<P>A large Dipole Magnet is required for the Muon Arm Spectrometer of the ALICE experiment at the LHC.<BR>The absence of strong requirements on the symmetry and homogeneity of the magnetic fie...

Descripción completa

Detalles Bibliográficos
Autores principales: Bartenev, V D, Bogoslovsky, G Yu, Datskov, V I, Koshurnikov, E, Shabounov, A, Shishov, Yu A, Swoboda, Detlef, Vodopyanov, A S
Lenguaje:eng
Publicado: 1999
Materias:
Acceso en línea:https://dx.doi.org/10.1109/77.828260
http://cds.cern.ch/record/426358
_version_ 1780895093003124736
author Bartenev, V D
Bogoslovsky, G Yu
Datskov, V I
Koshurnikov, E
Shabounov, A
Shishov, Yu A
Swoboda, Detlef
Vodopyanov, A S
author_facet Bartenev, V D
Bogoslovsky, G Yu
Datskov, V I
Koshurnikov, E
Shabounov, A
Shishov, Yu A
Swoboda, Detlef
Vodopyanov, A S
author_sort Bartenev, V D
collection CERN
description <P>Proposal of abstract for MT16, Tallahesse, Florida, 26th September to 2nd October 1999.<P>A large Dipole Magnet is required for the Muon Arm Spectrometer of the ALICE experiment at the LHC.<BR>The absence of strong requirements on the symmetry and homogeneity of the magnetic field has lead to a design dominated by economic and feasibility considerations.<P>In March 1997 the decision was taken to build a resistive dipole magnet for the muon spectrometer of the ALICE experiment. Since then, design work has been pursued in JINR/Russia and at CERN. While a common concept has been adopted for the construction of the steel core, two different proposals have been made for the manufacturing technology of the excitation coils. In both cases, however, the conductor material will be Aluminium.<P>The general concept of the dipole magnet is based on a window frame return yoke, fabricated from low carbon steel sheets. The flat vertical poles follow the defined acceptance angle of 9 degrees. The excitation coils are of saddle type. The coils are wound from large hollow Aluminium profiles. They are cooled by pressurized demineralised water. The coil ends are located to both sides of the magnet yoke and determine the overall length of the magnet. The main flux direction in the gap is horizontal and perpendicular to the LHC beam axis.<P>Both coil concepts and the underlying manufacturing technology are compared and the present status of the development of the magnet is described.
id cern-426358
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 1999
record_format invenio
spelling cern-4263582019-09-30T06:29:59Zdoi:10.1109/77.828260http://cds.cern.ch/record/426358engBartenev, V DBogoslovsky, G YuDatskov, V IKoshurnikov, EShabounov, AShishov, Yu ASwoboda, DetlefVodopyanov, A SDesign and Status of the Dipole Spectrometer Magnet for the ALICE ExperimentDetectors and Experimental Techniques<P>Proposal of abstract for MT16, Tallahesse, Florida, 26th September to 2nd October 1999.<P>A large Dipole Magnet is required for the Muon Arm Spectrometer of the ALICE experiment at the LHC.<BR>The absence of strong requirements on the symmetry and homogeneity of the magnetic field has lead to a design dominated by economic and feasibility considerations.<P>In March 1997 the decision was taken to build a resistive dipole magnet for the muon spectrometer of the ALICE experiment. Since then, design work has been pursued in JINR/Russia and at CERN. While a common concept has been adopted for the construction of the steel core, two different proposals have been made for the manufacturing technology of the excitation coils. In both cases, however, the conductor material will be Aluminium.<P>The general concept of the dipole magnet is based on a window frame return yoke, fabricated from low carbon steel sheets. The flat vertical poles follow the defined acceptance angle of 9 degrees. The excitation coils are of saddle type. The coils are wound from large hollow Aluminium profiles. They are cooled by pressurized demineralised water. The coil ends are located to both sides of the magnet yoke and determine the overall length of the magnet. The main flux direction in the gap is horizontal and perpendicular to the LHC beam axis.<P>Both coil concepts and the underlying manufacturing technology are compared and the present status of the development of the magnet is described.CERN-ALI-99-28CERN-ALICE-PUB-99-28oai:cds.cern.ch:4263581999-06-08
spellingShingle Detectors and Experimental Techniques
Bartenev, V D
Bogoslovsky, G Yu
Datskov, V I
Koshurnikov, E
Shabounov, A
Shishov, Yu A
Swoboda, Detlef
Vodopyanov, A S
Design and Status of the Dipole Spectrometer Magnet for the ALICE Experiment
title Design and Status of the Dipole Spectrometer Magnet for the ALICE Experiment
title_full Design and Status of the Dipole Spectrometer Magnet for the ALICE Experiment
title_fullStr Design and Status of the Dipole Spectrometer Magnet for the ALICE Experiment
title_full_unstemmed Design and Status of the Dipole Spectrometer Magnet for the ALICE Experiment
title_short Design and Status of the Dipole Spectrometer Magnet for the ALICE Experiment
title_sort design and status of the dipole spectrometer magnet for the alice experiment
topic Detectors and Experimental Techniques
url https://dx.doi.org/10.1109/77.828260
http://cds.cern.ch/record/426358
work_keys_str_mv AT bartenevvd designandstatusofthedipolespectrometermagnetforthealiceexperiment
AT bogoslovskygyu designandstatusofthedipolespectrometermagnetforthealiceexperiment
AT datskovvi designandstatusofthedipolespectrometermagnetforthealiceexperiment
AT koshurnikove designandstatusofthedipolespectrometermagnetforthealiceexperiment
AT shabounova designandstatusofthedipolespectrometermagnetforthealiceexperiment
AT shishovyua designandstatusofthedipolespectrometermagnetforthealiceexperiment
AT swobodadetlef designandstatusofthedipolespectrometermagnetforthealiceexperiment
AT vodopyanovas designandstatusofthedipolespectrometermagnetforthealiceexperiment