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IDR muon capture front end and variations

The (International Design Report) IDR neutrino factory scenario for capture, bunching, phase-energy rotation and initial cooling of micro's produced from a proton source target is explored. It requires a drift section from the target, a bunching section and a -E rotation section leading into th...

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Autores principales: Neuffer, David, Prior, Gersende, Rogers, Christopher, Snopok, Pavel, Yoshikawa, Cary
Lenguaje:eng
Publicado: 2012
Materias:
Acceso en línea:https://dx.doi.org/10.1063/1.3644311
http://cds.cern.ch/record/1425227
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author Neuffer, David
Prior, Gersende
Rogers, Christopher
Snopok, Pavel
Yoshikawa, Cary
author_facet Neuffer, David
Prior, Gersende
Rogers, Christopher
Snopok, Pavel
Yoshikawa, Cary
author_sort Neuffer, David
collection CERN
description The (International Design Report) IDR neutrino factory scenario for capture, bunching, phase-energy rotation and initial cooling of micro's produced from a proton source target is explored. It requires a drift section from the target, a bunching section and a -E rotation section leading into the cooling channel. The rf frequency changes along the bunching and rotation transport in order to form the 's into a train of equal-energy bunches suitable for cooling and acceleration. Optimization and variations are discussed. An important concern is rf limitations within the focusing magnetic fields, mitigation procedures are described. The method can be extended to provide muons for a micro+-micro < Collider, variations toward optimizing that extension are discussed.
id cern-1425227
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2012
record_format invenio
spelling cern-14252272023-06-08T02:16:40Zdoi:10.1063/1.3644311http://cds.cern.ch/record/1425227engNeuffer, DavidPrior, GersendeRogers, ChristopherSnopok, PavelYoshikawa, CaryIDR muon capture front end and variationsAccelerators and Storage RingsThe (International Design Report) IDR neutrino factory scenario for capture, bunching, phase-energy rotation and initial cooling of micro's produced from a proton source target is explored. It requires a drift section from the target, a bunching section and a -E rotation section leading into the cooling channel. The rf frequency changes along the bunching and rotation transport in order to form the 's into a train of equal-energy bunches suitable for cooling and acceleration. Optimization and variations are discussed. An important concern is rf limitations within the focusing magnetic fields, mitigation procedures are described. The method can be extended to provide muons for a micro+-micro < Collider, variations toward optimizing that extension are discussed.The (International Design Report) IDR neutrino factory scenario for capture, bunching, phase‐energy rotation and initial cooling of μ’s produced from a proton source target is explored. It requires a drift section from the target, a bunching section and a φ‐δE rotation section leading into the cooling channel. The rf frequency changes along the bunching and rotation transport in order to form the ’s into a train of equal‐energy bunches suitable for cooling and acceleration. Optimization and variations are discussed. An important concern is rf limitations within the focusing magnetic fields; mitigation procedures are described. The method can be extended to provide muons for a μ+‐μ− Collider; variations toward optimizing that extension are discussed.The (International Design Report) IDR neutrino factory scenario for capture, bunching, phase-energy rotation and initial cooling of micro's produced from a proton source target is explored. It requires a drift section from the target, a bunching section and a -E rotation section leading into the cooling channel. The rf frequency changes along the bunching and rotation transport in order to form the 's into a train of equal-energy bunches suitable for cooling and acceleration. Optimization and variations are discussed. An important concern is rf limitations within the focusing magnetic fields, mitigation procedures are described. The method can be extended to provide muons for a micro+-micro < Collider, variations toward optimizing that extension are discussed.arXiv:1202.3809FERMILAB-CONF-10-533-APCFERMILAB-CONF-10-533-APCoai:cds.cern.ch:14252272012-02-20
spellingShingle Accelerators and Storage Rings
Neuffer, David
Prior, Gersende
Rogers, Christopher
Snopok, Pavel
Yoshikawa, Cary
IDR muon capture front end and variations
title IDR muon capture front end and variations
title_full IDR muon capture front end and variations
title_fullStr IDR muon capture front end and variations
title_full_unstemmed IDR muon capture front end and variations
title_short IDR muon capture front end and variations
title_sort idr muon capture front end and variations
topic Accelerators and Storage Rings
url https://dx.doi.org/10.1063/1.3644311
http://cds.cern.ch/record/1425227
work_keys_str_mv AT neufferdavid idrmuoncapturefrontendandvariations
AT priorgersende idrmuoncapturefrontendandvariations
AT rogerschristopher idrmuoncapturefrontendandvariations
AT snopokpavel idrmuoncapturefrontendandvariations
AT yoshikawacary idrmuoncapturefrontendandvariations