Effects of Head Morphology on Brain Strains Due to Impacts: A Numerical Approach

Traumatic Brain Injury is a major public health concern, and recent research has highlighted the significant influence of head morphological variations on injury outcomes, under the same kinematics.Finite element head models are important tools for understanding injury biomechanics, but existing models often lack anatomical detail.This study presents the development of detailed anatomical male and female finite element head models and assesses tissue-level responses (maximum principal strain, and shear strain) under pure translational, rotational, and combined translational-rotational kinematics based on experimental data.Results demonstrate significant differences in peak strain values (max up to 46%) and varying peak strain locations between the two models, highlighting the impact of morphological variations on brain response.These preliminary results suggest a possible relationship between intracranial volume and strain values, emphasizing the importance of considering individual anatomical differences in traumatic brain injury assessment and prevention strategies.

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Publication Details

Journal
Civil-comp conferences
Published
2024-08-26
DOI
https://doi.org/10.4203/ccc.8.8.1
Primary Topic
Automotive and Human Injury Biomechanics
Type
article
Field-Weighted Citation Impact
0.00

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article

Effects of Head Morphology on Brain Strains Due to Impacts: A Numerical Approach

Ugo Galvanetto, Piero G. Pavan, K. Gupta
Civil-comp conferences
Automotive and Human Injury Biomechanics
article

Effects of Head Morphology on Brain Strains Due to Impacts: A Numerical Approach

Ugo Galvanetto, Piero G. Pavan, K. Gupta
article en

Abstract

Traumatic Brain Injury is a major public health concern, and recent research has highlighted the significant influence of head morphological variations on injury outcomes, under the same kinematics.Finite element head models are important tools for understanding injury biomechanics, but existing models often lack anatomical detail.This study presents the development of detailed anatomical male and female finite element head models and assesses tissue-level responses (maximum principal strain, and shear strain) under pure translational, rotational, and combined translational-rotational kinematics based on experimental data.Results demonstrate significant differences in peak strain values (max up to 46%) and varying peak strain locations between the two models, highlighting the impact of morphological variations on brain response.These preliminary results suggest a possible relationship between intracranial volume and strain values, emphasizing the importance of considering individual anatomical differences in traumatic brain injury assessment and prevention strategies.

Civil-comp conferencesVol. 8
University of Padua (IT), Space (Italy) (IT)
Ministero dell’Istruzione, dell’Università e della Ricerca, Università degli Studi di Padova
Good health and well-being
Openalex Percentile: Top 46%
Automotive and Human Injury Biomechanics
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