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Alternative Muon Cooling Options based on Particle-Matter-Interaction for a Neutrino Factory
An ionization cooling channel is a tightly spaced lattice containing absorbers for reducing the momentum of the muon beam, rf cavities for restoring the momentum and strong solenoids for focusing the beam. Such a lattice is an essential feature of most designs for Neutrino Factories and Muon Collide...
Autores principales: | , , , |
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Lenguaje: | eng |
Publicado: |
2013
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Materias: | |
Acceso en línea: | http://cds.cern.ch/record/2010133 |
_version_ | 1780946522164166656 |
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author | Stratakis, D Rogers, C T Alekou, A Pasternak, J |
author_facet | Stratakis, D Rogers, C T Alekou, A Pasternak, J |
author_sort | Stratakis, D |
collection | CERN |
description | An ionization cooling channel is a tightly spaced lattice containing absorbers for reducing the momentum of the muon beam, rf cavities for restoring the momentum and strong solenoids for focusing the beam. Such a lattice is an essential feature of most designs for Neutrino Factories and Muon Colliders. Here, we explore three different approaches for designing ionization cooling channels based on periodic solenoidal focusing. Key parameters such as the engineering constraints arising from the length and separation between the solenoidal coils are systematically examined. In addition, we propose novel approaches for reducing the peak magnetic field inside the rf cavities, for example, by using bucked coils for focusing. Our lattice designs are numerically examined against two independent codes: The ICOOL and G4BL code. The performance of our proposed cooling channels is examined by implementing those to the front-end of a Neutrino Factory. |
id | oai-inspirehep.net-1328041 |
institution | Organización Europea para la Investigación Nuclear |
language | eng |
publishDate | 2013 |
record_format | invenio |
spelling | oai-inspirehep.net-13280412022-08-17T13:29:21Zhttp://cds.cern.ch/record/2010133engStratakis, DRogers, C TAlekou, APasternak, JAlternative Muon Cooling Options based on Particle-Matter-Interaction for a Neutrino FactoryAccelerators and Storage RingsAn ionization cooling channel is a tightly spaced lattice containing absorbers for reducing the momentum of the muon beam, rf cavities for restoring the momentum and strong solenoids for focusing the beam. Such a lattice is an essential feature of most designs for Neutrino Factories and Muon Colliders. Here, we explore three different approaches for designing ionization cooling channels based on periodic solenoidal focusing. Key parameters such as the engineering constraints arising from the length and separation between the solenoidal coils are systematically examined. In addition, we propose novel approaches for reducing the peak magnetic field inside the rf cavities, for example, by using bucked coils for focusing. Our lattice designs are numerically examined against two independent codes: The ICOOL and G4BL code. The performance of our proposed cooling channels is examined by implementing those to the front-end of a Neutrino Factory.An ionization cooling channel is a tightly spaced lattice containing absorbers for reducing the momentum of the muon beam, rf cavities for restoring the momentum and strong solenoids for focusing the beam. Such a lattice is an essential feature of most designs for Neutrino Factories and Muon Colliders. Here, we explore three different approaches for designing ionization cooling channels with periodic solenoidal focusing. Key parameters such as the engineering constraints that are arising from the length and separation between the solenoidal coils are systematically examined. In addition, we propose novel approaches for reducing the peak magnetic field inside the rf cavities by using either a magnetic shield system or a bucked coils configuration. Our lattice designs are numerically examined against two independent codes: The ICOOL and G4BL code. The feasibility of our proposed cooling channels to muon accelerators is examined by applying the proposed lattices to the front-end of a Neutrino Factory.IPAC-2013-TUPFI087oai:inspirehep.net:13280412013 |
spellingShingle | Accelerators and Storage Rings Stratakis, D Rogers, C T Alekou, A Pasternak, J Alternative Muon Cooling Options based on Particle-Matter-Interaction for a Neutrino Factory |
title | Alternative Muon Cooling Options based on Particle-Matter-Interaction for a Neutrino Factory |
title_full | Alternative Muon Cooling Options based on Particle-Matter-Interaction for a Neutrino Factory |
title_fullStr | Alternative Muon Cooling Options based on Particle-Matter-Interaction for a Neutrino Factory |
title_full_unstemmed | Alternative Muon Cooling Options based on Particle-Matter-Interaction for a Neutrino Factory |
title_short | Alternative Muon Cooling Options based on Particle-Matter-Interaction for a Neutrino Factory |
title_sort | alternative muon cooling options based on particle-matter-interaction for a neutrino factory |
topic | Accelerators and Storage Rings |
url | http://cds.cern.ch/record/2010133 |
work_keys_str_mv | AT stratakisd alternativemuoncoolingoptionsbasedonparticlematterinteractionforaneutrinofactory AT rogersct alternativemuoncoolingoptionsbasedonparticlematterinteractionforaneutrinofactory AT alekoua alternativemuoncoolingoptionsbasedonparticlematterinteractionforaneutrinofactory AT pasternakj alternativemuoncoolingoptionsbasedonparticlematterinteractionforaneutrinofactory |