From particle cascade simulations (FLUKA) to finite element heat transfer and structural deformation analyses (ANSYS)

Particle cascade simulations coupled with subsequent finite element thermal and mechanical calculations are an advanced, extremely useful, and sometimes the only available and reliable tool for solving practical as well as general engineering problems related to design and construction of accelerato...

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Detalles Bibliográficos
Autor principal: Zazula, J M
Lenguaje:eng
Publicado: 1995
Materias:
Health Physics and Radiation Effects
Acceso en línea:http://cds.cern.ch/record/291774
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author Zazula, J M
author_facet Zazula, J M
author_sort Zazula, J M
collection CERN
description Particle cascade simulations coupled with subsequent finite element thermal and mechanical calculations are an advanced, extremely useful, and sometimes the only available and reliable tool for solving practical as well as general engineering problems related to design and construction of accelerator components. The FLUKA Monte Carlo code and the ANSYS Finite Element system are extensively used by us for this purpose. In this paper we discuss physical assumptions made when using these programmes, modes of their applications, and their interface. Successful application of their mainframe for estimating spatial distributions and time evolution of temperatures and stresses in the accelerator domain are shown as examples : for the LHC and SPS beam dumps, and for the neutrino target at the SPS.
id cern-291774
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 1995
record_format invenio
spelling cern-2917742023-05-05T12:57:20Zhttp://cds.cern.ch/record/291774engZazula, J MFrom particle cascade simulations (FLUKA) to finite element heat transfer and structural deformation analyses (ANSYS)Health Physics and Radiation EffectsParticle cascade simulations coupled with subsequent finite element thermal and mechanical calculations are an advanced, extremely useful, and sometimes the only available and reliable tool for solving practical as well as general engineering problems related to design and construction of accelerator components. The FLUKA Monte Carlo code and the ANSYS Finite Element system are extensively used by us for this purpose. In this paper we discuss physical assumptions made when using these programmes, modes of their applications, and their interface. Successful application of their mainframe for estimating spatial distributions and time evolution of temperatures and stresses in the accelerator domain are shown as examples : for the LHC and SPS beam dumps, and for the neutrino target at the SPS.CERN-SL-95-93-BToai:cds.cern.ch:2917741995-10-18
spellingShingle Health Physics and Radiation Effects
Zazula, J M
From particle cascade simulations (FLUKA) to finite element heat transfer and structural deformation analyses (ANSYS)
title From particle cascade simulations (FLUKA) to finite element heat transfer and structural deformation analyses (ANSYS)
title_full From particle cascade simulations (FLUKA) to finite element heat transfer and structural deformation analyses (ANSYS)
title_fullStr From particle cascade simulations (FLUKA) to finite element heat transfer and structural deformation analyses (ANSYS)
title_full_unstemmed From particle cascade simulations (FLUKA) to finite element heat transfer and structural deformation analyses (ANSYS)
title_short From particle cascade simulations (FLUKA) to finite element heat transfer and structural deformation analyses (ANSYS)
title_sort from particle cascade simulations (fluka) to finite element heat transfer and structural deformation analyses (ansys)
topic Health Physics and Radiation Effects
url http://cds.cern.ch/record/291774
work_keys_str_mv AT zazulajm fromparticlecascadesimulationsflukatofiniteelementheattransferandstructuraldeformationanalysesansys

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