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Correlation of an FE Model of the Human Head with Local Brain Motion--Consequences for Injury Prediction.

Correlation of an FE Model of the Human Head with Local Brain Motion--Consequences for Injury Prediction. Research Abstract Details 

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  • Correlation of an FE Model of the Human Head with Local Brain Motion--Consequences for Injury Prediction. Abstract Text:

    svein kleivenSvein Kleiven,warren n hardyWarren N Hardy,

    A parameterized, or scalable, finite element (FE) model of the human head was developed and validated against the available cadaver experiment data for three impact directions (frontal, occipital and lateral). The brain material properties were modeled using a hyperelastic and viscoelastic constitutive law. The interface between the skull and the brain was modeled in three different ways ranging from purely tied (no-slip) to sliding (free-slip). Two sliding contact definitions were compared with the tied condition. Also, three different stiffness parameters, encompassing the range of published brain tissue properties, were tested. The model using the tied contact definition correlated well with the experimental results for the coup and contrecoup pressures in a frontal impact while the sliding interface models did not. Relative motion between the skull and the brain in low-severity impacts appears to be relatively insensitive to the contact definitions. It is shown that a range of shear stiffness properties for the brain can be used to model the pressure experiments, while relative motion is a more complex measure that is highly sensitive to the brain tissue properties. Smaller relative motion between the brain and skull results from lateral impact than from a frontal or occipital blow for both the experiments and FE simulations. The material properties of brain tissue are important to the characteristics of relative brain-skull motion. The results suggest that significantly lower values of the shear properties of the human brain than currently used in most three-dimensional (3D) FE models today are needed to predict the localized brain response of an impact to the human head.

    Correlation of an FE Model of the Human Head with Local Brain Motion--Consequences for Injury Prediction. Publishing Authors By Initials

    s kleivenS Kleiven,wn hardyWN Hardy,

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    Correlation of an FE Model of the Human Head with Local Brain Motion--Consequences for Injury Prediction. Journal Published:

    PUBLICATION TYPE: Journal Article

    Journal: Stapp car crash journal

    VOLUME: 46

    Page Numbers: 123-44

    Journal Abbreviation:

    ISSN: 1532-8546

    DAY: 10

    MONTH: Nov

    YEAR: 2002

    Correlation of an FE Model of the Human Head with Local Brain Motion--Consequences for Injury Prediction. Information

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    LANGUAGE: eng

    NlmUniqueID: 101133951

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    Grant and Affiliation Information for Correlation of an FE Model of the Human Head with Local Brain Motion--Consequences for Injury Prediction.

    AFFILIATION: Department of Aeronautics, Royal Institute of Technology, Stockholm, Sweden.

    Country: United States

    United States Research PublicationUnited States Research Publication

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    MEDLINETA: Stapp Car Crash J

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