SERPENT validation and optimization with mesh adaptive search on stereolithography geometry models

Alberto Talamo (Corresponding Author), Yousry Gohar, J. Leppänen

    Research output: Contribution to journalArticleScientificpeer-review

    3 Citations (Scopus)

    Abstract

    The SERPENT Monte Carlo code has the unique capability to simulate neutron and gamma transport using a stereolithography (STL) geometry. The STL geometry can model irregular complex geometries often encountered, for example, in research reactors. This geometry type can be used in combination with an unstructured mesh-based interface to couple SERPENT to OpenFOAM for CFD analyses. The STL file format also allows printing the geometry model with 3D printers. This work validates SERPENT simulations based on the STL geometry using the GIACINT critical experimental facility and the YALINA Thermal subcritical experimental facility. The results and performances of SERPENT have been compared with those of the well-known MCNP code. Finally, SERPENT computing time has been significantly reduced by using its mesh adaptive search algorithm, which has been introduced to optimize simulations based on the stereolithography STL geometry, and a hybrid modeling that mixes combinatorial and STL geometries. In this work, the STL geometry model of SERPENT involved the use of multiple software and programming languages, including: CUBIT, PYTHON, C, and MATLAB.

    Original languageEnglish
    Pages (from-to)619-632
    Number of pages14
    JournalAnnals of Nuclear Energy
    Volume115
    DOIs
    Publication statusPublished - 1 May 2018
    MoE publication typeA1 Journal article-refereed

    Fingerprint

    Stereolithography
    Geometry
    3D printers
    Research reactors
    Computer programming languages
    MATLAB
    Printing
    Neutrons
    Computational fluid dynamics

    Keywords

    • ABAQUS
    • CUBIT
    • Stereolithography
    • Tetrahedron
    • Unstructured mesh

    Cite this

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    abstract = "The SERPENT Monte Carlo code has the unique capability to simulate neutron and gamma transport using a stereolithography (STL) geometry. The STL geometry can model irregular complex geometries often encountered, for example, in research reactors. This geometry type can be used in combination with an unstructured mesh-based interface to couple SERPENT to OpenFOAM for CFD analyses. The STL file format also allows printing the geometry model with 3D printers. This work validates SERPENT simulations based on the STL geometry using the GIACINT critical experimental facility and the YALINA Thermal subcritical experimental facility. The results and performances of SERPENT have been compared with those of the well-known MCNP code. Finally, SERPENT computing time has been significantly reduced by using its mesh adaptive search algorithm, which has been introduced to optimize simulations based on the stereolithography STL geometry, and a hybrid modeling that mixes combinatorial and STL geometries. In this work, the STL geometry model of SERPENT involved the use of multiple software and programming languages, including: CUBIT, PYTHON, C, and MATLAB.",
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    SERPENT validation and optimization with mesh adaptive search on stereolithography geometry models. / Talamo, Alberto (Corresponding Author); Gohar, Yousry; Leppänen, J.

    In: Annals of Nuclear Energy, Vol. 115, 01.05.2018, p. 619-632.

    Research output: Contribution to journalArticleScientificpeer-review

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    AU - Gohar, Yousry

    AU - Leppänen, J.

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