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Validation of a Coupled Thermal-Electromagnetic Quench Model for Accelerator Magnets

Quench simulation in superconducting magnets is a challenging task due to the interdependence of thermal, electrical, and magnetic phenomena. We present a new quench-simulation module in the CERN magnet-design program ROXIE. Thermal, electrical, and magnetic models are solved simultaneously. The int...

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Detalles Bibliográficos
Autores principales: Schwerg, N, Auchmann, B, Russenschuck, Stephan
Lenguaje:eng
Publicado: 2007
Materias:
Acceso en línea:http://cds.cern.ch/record/1122944
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author Schwerg, N
Auchmann, B
Russenschuck, Stephan
author_facet Schwerg, N
Auchmann, B
Russenschuck, Stephan
author_sort Schwerg, N
collection CERN
description Quench simulation in superconducting magnets is a challenging task due to the interdependence of thermal, electrical, and magnetic phenomena. We present a new quench-simulation module in the CERN magnet-design program ROXIE. Thermal, electrical, and magnetic models are solved simultaneously. The integrated model helps to single out the impact of different phenomena. We can thus reach a deeper understanding of measured quench behavior. Moreover, the magnet-design process is improved due to the implementation within an integrated design and optimization environment. We compare simulations and measurements of the LHC main dipole magnet.
id cern-1122944
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2007
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spelling cern-11229442019-09-30T06:29:59Zhttp://cds.cern.ch/record/1122944engSchwerg, NAuchmann, BRussenschuck, StephanValidation of a Coupled Thermal-Electromagnetic Quench Model for Accelerator MagnetsAccelerators and Storage RingsQuench simulation in superconducting magnets is a challenging task due to the interdependence of thermal, electrical, and magnetic phenomena. We present a new quench-simulation module in the CERN magnet-design program ROXIE. Thermal, electrical, and magnetic models are solved simultaneously. The integrated model helps to single out the impact of different phenomena. We can thus reach a deeper understanding of measured quench behavior. Moreover, the magnet-design process is improved due to the implementation within an integrated design and optimization environment. We compare simulations and measurements of the LHC main dipole magnet.CERN-AT-2007-043-MELoai:cds.cern.ch:11229442007-12-20
spellingShingle Accelerators and Storage Rings
Schwerg, N
Auchmann, B
Russenschuck, Stephan
Validation of a Coupled Thermal-Electromagnetic Quench Model for Accelerator Magnets
title Validation of a Coupled Thermal-Electromagnetic Quench Model for Accelerator Magnets
title_full Validation of a Coupled Thermal-Electromagnetic Quench Model for Accelerator Magnets
title_fullStr Validation of a Coupled Thermal-Electromagnetic Quench Model for Accelerator Magnets
title_full_unstemmed Validation of a Coupled Thermal-Electromagnetic Quench Model for Accelerator Magnets
title_short Validation of a Coupled Thermal-Electromagnetic Quench Model for Accelerator Magnets
title_sort validation of a coupled thermal-electromagnetic quench model for accelerator magnets
topic Accelerators and Storage Rings
url http://cds.cern.ch/record/1122944
work_keys_str_mv AT schwergn validationofacoupledthermalelectromagneticquenchmodelforacceleratormagnets
AT auchmannb validationofacoupledthermalelectromagneticquenchmodelforacceleratormagnets
AT russenschuckstephan validationofacoupledthermalelectromagneticquenchmodelforacceleratormagnets