Field Simulations and Mechanical Implementation of Electrostatic Elements for the ELENA Transfer Lines

The Antiproton Decelerator (AD) complex at CERN will be extended by an extra low energy anti-proton ring (ELENA) [1] further decelerating the anti-protons thus improving their trapping. The kinetic energy of 100 keV at ELENA extraction facilitates the use of electrostatic transfer lines to the exper...

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Detalles Bibliográficos
Autores principales: Barna, D, Bartmann, W, Borburgh, J, Carli, C, Vanbavinckhove, G
Lenguaje:eng
Publicado: 2014
Materias:
Accelerators and Storage Rings
Acceso en línea:http://cds.cern.ch/record/1756238
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author Barna, D
Bartmann, W
Borburgh, J
Carli, C
Vanbavinckhove, G
author_facet Barna, D
Bartmann, W
Borburgh, J
Carli, C
Vanbavinckhove, G
author_sort Barna, D
collection CERN
description The Antiproton Decelerator (AD) complex at CERN will be extended by an extra low energy anti-proton ring (ELENA) [1] further decelerating the anti-protons thus improving their trapping. The kinetic energy of 100 keV at ELENA extraction facilitates the use of electrostatic transfer lines to the experiments. The mechanical implementation of the electrostatic devices are presented with focus on their alignment, bakeout compatibility, ultra-high vacuum compatibility and polarity switching. Field optimisations for an electrostatic crossing device of three beam lines are shown.
id cern-1756238
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2014
record_format invenio
spelling cern-17562382022-08-17T13:29:29Zhttp://cds.cern.ch/record/1756238engBarna, DBartmann, WBorburgh, JCarli, CVanbavinckhove, GField Simulations and Mechanical Implementation of Electrostatic Elements for the ELENA Transfer LinesAccelerators and Storage RingsThe Antiproton Decelerator (AD) complex at CERN will be extended by an extra low energy anti-proton ring (ELENA) [1] further decelerating the anti-protons thus improving their trapping. The kinetic energy of 100 keV at ELENA extraction facilitates the use of electrostatic transfer lines to the experiments. The mechanical implementation of the electrostatic devices are presented with focus on their alignment, bakeout compatibility, ultra-high vacuum compatibility and polarity switching. Field optimisations for an electrostatic crossing device of three beam lines are shown.CERN-ACC-2014-0203oai:cds.cern.ch:17562382014-09-17
spellingShingle Accelerators and Storage Rings
Barna, D
Bartmann, W
Borburgh, J
Carli, C
Vanbavinckhove, G
Field Simulations and Mechanical Implementation of Electrostatic Elements for the ELENA Transfer Lines
title Field Simulations and Mechanical Implementation of Electrostatic Elements for the ELENA Transfer Lines
title_full Field Simulations and Mechanical Implementation of Electrostatic Elements for the ELENA Transfer Lines
title_fullStr Field Simulations and Mechanical Implementation of Electrostatic Elements for the ELENA Transfer Lines
title_full_unstemmed Field Simulations and Mechanical Implementation of Electrostatic Elements for the ELENA Transfer Lines
title_short Field Simulations and Mechanical Implementation of Electrostatic Elements for the ELENA Transfer Lines
title_sort field simulations and mechanical implementation of electrostatic elements for the elena transfer lines
topic Accelerators and Storage Rings
url http://cds.cern.ch/record/1756238
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AT bartmannw fieldsimulationsandmechanicalimplementationofelectrostaticelementsfortheelenatransferlines
AT borburghj fieldsimulationsandmechanicalimplementationofelectrostaticelementsfortheelenatransferlines
AT carlic fieldsimulationsandmechanicalimplementationofelectrostaticelementsfortheelenatransferlines
AT vanbavinckhoveg fieldsimulationsandmechanicalimplementationofelectrostaticelementsfortheelenatransferlines

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