Model order reduction of large stroke flexure hinges using modal derivatives

J. P. Schilder, F. M. Segeth, M. H. M. Ellenbroek, M. van den Belt, A. de Boer

    Research output: Working paper

    1 Citation (Scopus)

    Abstract

    In this work, a strategy for the model order reduction of large stroke flexure mechanisms is presented. In this, geometrically nonlinear finite element models of each flexible body within the mechanism are projected onto a reduction basis. This basis consists of the body’s Craig-Bampton modes and corresponding modal derivatives. Validation simulations that are performed on commonly used flexure mechanisms show good accuracy of the reduced order models. Therefore, the proposed reduction strategy can be efficiently applied to reduce computational costs of structural optimizations that are required to improve the design of flexure
    mechanisms.
    Original languageEnglish
    Publication statusPublished - 2018

    Cite this

    Schilder, J. P., Segeth, F. M., Ellenbroek, M. H. M., van den Belt, M., & de Boer, A. (2018). Model order reduction of large stroke flexure hinges using modal derivatives.
    Schilder, J. P. ; Segeth, F. M. ; Ellenbroek, M. H. M. ; van den Belt, M. ; de Boer, A. / Model order reduction of large stroke flexure hinges using modal derivatives. 2018.
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    abstract = "In this work, a strategy for the model order reduction of large stroke flexure mechanisms is presented. In this, geometrically nonlinear finite element models of each flexible body within the mechanism are projected onto a reduction basis. This basis consists of the body’s Craig-Bampton modes and corresponding modal derivatives. Validation simulations that are performed on commonly used flexure mechanisms show good accuracy of the reduced order models. Therefore, the proposed reduction strategy can be efficiently applied to reduce computational costs of structural optimizations that are required to improve the design of flexure mechanisms.",
    author = "Schilder, {J. P.} and Segeth, {F. M.} and Ellenbroek, {M. H. M.} and {van den Belt}, M. and {de Boer}, A.",
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    Schilder, JP, Segeth, FM, Ellenbroek, MHM, van den Belt, M & de Boer, A 2018 'Model order reduction of large stroke flexure hinges using modal derivatives'.

    Model order reduction of large stroke flexure hinges using modal derivatives. / Schilder, J. P.; Segeth, F. M.; Ellenbroek, M. H. M.; van den Belt, M.; de Boer, A.

    2018.

    Research output: Working paper

    TY - UNPB

    T1 - Model order reduction of large stroke flexure hinges using modal derivatives

    AU - Schilder, J. P.

    AU - Segeth, F. M.

    AU - Ellenbroek, M. H. M.

    AU - van den Belt, M.

    AU - de Boer, A.

    PY - 2018

    Y1 - 2018

    N2 - In this work, a strategy for the model order reduction of large stroke flexure mechanisms is presented. In this, geometrically nonlinear finite element models of each flexible body within the mechanism are projected onto a reduction basis. This basis consists of the body’s Craig-Bampton modes and corresponding modal derivatives. Validation simulations that are performed on commonly used flexure mechanisms show good accuracy of the reduced order models. Therefore, the proposed reduction strategy can be efficiently applied to reduce computational costs of structural optimizations that are required to improve the design of flexure mechanisms.

    AB - In this work, a strategy for the model order reduction of large stroke flexure mechanisms is presented. In this, geometrically nonlinear finite element models of each flexible body within the mechanism are projected onto a reduction basis. This basis consists of the body’s Craig-Bampton modes and corresponding modal derivatives. Validation simulations that are performed on commonly used flexure mechanisms show good accuracy of the reduced order models. Therefore, the proposed reduction strategy can be efficiently applied to reduce computational costs of structural optimizations that are required to improve the design of flexure mechanisms.

    M3 - Working paper

    BT - Model order reduction of large stroke flexure hinges using modal derivatives

    ER -

    Schilder JP, Segeth FM, Ellenbroek MHM, van den Belt M, de Boer A. Model order reduction of large stroke flexure hinges using modal derivatives. 2018.