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Thermal and Modal Simulations for the CLIC Module

This article examines the modal frequencies and thermal deformations with different cooling schemes in unloaded condition of the latest girder and super accelerator structure (SAS) design of the CLIC module. Non-mass bearing parts and parts which didn’t significantly affect the rigidity of the model...

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Autor principal: Berg, Henri
Lenguaje:eng
Publicado: 2020
Materias:
Acceso en línea:http://cds.cern.ch/record/2730640
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author Berg, Henri
author_facet Berg, Henri
author_sort Berg, Henri
collection CERN
description This article examines the modal frequencies and thermal deformations with different cooling schemes in unloaded condition of the latest girder and super accelerator structure (SAS) design of the CLIC module. Non-mass bearing parts and parts which didn’t significantly affect the rigidity of the model were removed in order to simplify the calculations. Thermal deformation analysis included only SA-structure made of oxygen-free copper (OFC). The results show that the girder together with the SAS form a top-heavy structure and natural frequencies will manifest in 20-55 Hz range. Furthermore, Thermal deformation analysis of different water cooling schemes show that dividing the single cooling loop into two or four separate loops increases the effectiveness of the cooling system as long as minimum individual mass flow rate is maintained.
id cern-2730640
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2020
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spelling cern-27306402023-07-20T15:03:12Zhttp://cds.cern.ch/record/2730640engBerg, HenriThermal and Modal Simulations for the CLIC ModuleAccelerators and Storage RingsThis article examines the modal frequencies and thermal deformations with different cooling schemes in unloaded condition of the latest girder and super accelerator structure (SAS) design of the CLIC module. Non-mass bearing parts and parts which didn’t significantly affect the rigidity of the model were removed in order to simplify the calculations. Thermal deformation analysis included only SA-structure made of oxygen-free copper (OFC). The results show that the girder together with the SAS form a top-heavy structure and natural frequencies will manifest in 20-55 Hz range. Furthermore, Thermal deformation analysis of different water cooling schemes show that dividing the single cooling loop into two or four separate loops increases the effectiveness of the cooling system as long as minimum individual mass flow rate is maintained.CERN-ACC-2020-0024CLIC-Note-1163oai:cds.cern.ch:27306402020-09-03
spellingShingle Accelerators and Storage Rings
Berg, Henri
Thermal and Modal Simulations for the CLIC Module
title Thermal and Modal Simulations for the CLIC Module
title_full Thermal and Modal Simulations for the CLIC Module
title_fullStr Thermal and Modal Simulations for the CLIC Module
title_full_unstemmed Thermal and Modal Simulations for the CLIC Module
title_short Thermal and Modal Simulations for the CLIC Module
title_sort thermal and modal simulations for the clic module
topic Accelerators and Storage Rings
url http://cds.cern.ch/record/2730640
work_keys_str_mv AT berghenri thermalandmodalsimulationsfortheclicmodule