Computational Modelling of Protected and Unprotected Head Impacts in Rugby

This study involved the simulation of five real-world head impact events in rugby, to assess the level of protection provided by a novel foam headguard, the N-Pro. The University College Dublin Brain Trauma Model (UCDBTM) was used to estimate the peak resultant head accelerations and brain tissue responses in different head impact scenarios. The input kinematics were obtained from two sources: video analysis of impact events, and real-time data obtained through instrumented mouthguards. The impact events were simulated under both unprotected and protected conditions. All simulations were performed against a rigid, non-compliant surface model. The results obtained in this study demonstrate the significant potential of the N-Pro in reducing peak head accelerations and brain tissue stress/strain responses by up to c. 70% compared to unprotected head impacts. This study highlights the headguard's promising potential to reduce the severity of impact-related injuries by effectively attenuating stresses and strains, as well as linear and rotational kinematics. Additionally, the study supports the recommendation in the literature that kinematic data collected from wearable sensors should be supplemented by video analysis to improve accident reconstructions.

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Publication Details

Journal
Bioengineering
Published
2025-03-31
DOI
https://doi.org/10.3390/bioengineering12040361
Primary Topic
Automotive and Human Injury Biomechanics
Type
article
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article

Computational Modelling of Protected and Unprotected Head Impacts in Rugby

Michael D. Gilchrist, Tahar Kechadi, David B. MacManus, A.K. Mishra et al.
Bioengineering
Automotive and Human Injury Biomechanics
article

Computational Modelling of Protected and Unprotected Head Impacts in Rugby

Michael D. Gilchrist, Tahar Kechadi, David B. MacManus, A.K. Mishra, Adam Jones, Brian Michael Caulfield, Thea Hodges, Lucía Pérez del Olmo
article en

Abstract

This study involved the simulation of five real-world head impact events in rugby, to assess the level of protection provided by a novel foam headguard, the N-Pro. The University College Dublin Brain Trauma Model (UCDBTM) was used to estimate the peak resultant head accelerations and brain tissue responses in different head impact scenarios. The input kinematics were obtained from two sources: video analysis of impact events, and real-time data obtained through instrumented mouthguards. The impact events were simulated under both unprotected and protected conditions. All simulations were performed against a rigid, non-compliant surface model. The results obtained in this study demonstrate the significant potential of the N-Pro in reducing peak head accelerations and brain tissue stress/strain responses by up to c. 70% compared to unprotected head impacts. This study highlights the headguard's promising potential to reduce the severity of impact-related injuries by effectively attenuating stresses and strains, as well as linear and rotational kinematics. Additionally, the study supports the recommendation in the literature that kinematic data collected from wearable sensors should be supplemented by video analysis to improve accident reconstructions.

BioengineeringVol. 12(4)
University College Dublin (IE)
Good health and well-being
Openalex Percentile: Top 90%
Automotive and Human Injury Biomechanics
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