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Synchrotron-Radiation Photon Distribution for Highest Energy Circular Colliders
At high energies, beam-induced synchrotron radiation is an important source of heating, beam-related vacuum pressure increase, and primary photoelectrons, which can give rise to an electron cloud. The photon distribution along the beam pipe wall is a key input to codes such as ECLOUD and PyECLOUD, w...
Autores principales: | , , , |
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Lenguaje: | eng |
Publicado: |
2013
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Materias: | |
Acceso en línea: | http://cds.cern.ch/record/1581698 |
_version_ | 1780931091162464256 |
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author | Maury Cuna, GHI Sagan, D Dugan, G Zimmermann, F |
author_facet | Maury Cuna, GHI Sagan, D Dugan, G Zimmermann, F |
author_sort | Maury Cuna, GHI |
collection | CERN |
description | At high energies, beam-induced synchrotron radiation is an important source of heating, beam-related vacuum pressure increase, and primary photoelectrons, which can give rise to an electron cloud. The photon distribution along the beam pipe wall is a key input to codes such as ECLOUD and PyECLOUD, which model the electron cloud build-up. For future high-energy colliders, like TLEP or SHE-LHC, photon stops and antechambers are considered in order to facilitate cooling and vacuum pressure control. We use the Synrad3D code developed at Cornell to simulate the photon distribution for the LHC. |
id | cern-1581698 |
institution | Organización Europea para la Investigación Nuclear |
language | eng |
publishDate | 2013 |
record_format | invenio |
spelling | cern-15816982019-09-30T06:29:59Zhttp://cds.cern.ch/record/1581698engMaury Cuna, GHISagan, DDugan, GZimmermann, FSynchrotron-Radiation Photon Distribution for Highest Energy Circular CollidersAccelerators and Storage RingsAt high energies, beam-induced synchrotron radiation is an important source of heating, beam-related vacuum pressure increase, and primary photoelectrons, which can give rise to an electron cloud. The photon distribution along the beam pipe wall is a key input to codes such as ECLOUD and PyECLOUD, which model the electron cloud build-up. For future high-energy colliders, like TLEP or SHE-LHC, photon stops and antechambers are considered in order to facilitate cooling and vacuum pressure control. We use the Synrad3D code developed at Cornell to simulate the photon distribution for the LHC.CERN-ACC-2013-0128oai:cds.cern.ch:15816982013-05-12 |
spellingShingle | Accelerators and Storage Rings Maury Cuna, GHI Sagan, D Dugan, G Zimmermann, F Synchrotron-Radiation Photon Distribution for Highest Energy Circular Colliders |
title | Synchrotron-Radiation Photon Distribution for Highest Energy Circular Colliders |
title_full | Synchrotron-Radiation Photon Distribution for Highest Energy Circular Colliders |
title_fullStr | Synchrotron-Radiation Photon Distribution for Highest Energy Circular Colliders |
title_full_unstemmed | Synchrotron-Radiation Photon Distribution for Highest Energy Circular Colliders |
title_short | Synchrotron-Radiation Photon Distribution for Highest Energy Circular Colliders |
title_sort | synchrotron-radiation photon distribution for highest energy circular colliders |
topic | Accelerators and Storage Rings |
url | http://cds.cern.ch/record/1581698 |
work_keys_str_mv | AT maurycunaghi synchrotronradiationphotondistributionforhighestenergycircularcolliders AT sagand synchrotronradiationphotondistributionforhighestenergycircularcolliders AT dugang synchrotronradiationphotondistributionforhighestenergycircularcolliders AT zimmermannf synchrotronradiationphotondistributionforhighestenergycircularcolliders |