Predicting specific injury patterns from crash data: a GIDAS-based and manufacturer-independent logistic regression approach for next generation eCall

Background While prehospital traffic fatalities remain a critical challenge, current eCall systems transmit limited injury-relevant data, and existing prediction models often fail to support targeted prehospital triage. This study developed and validated a manufacturer-independent, data-driven framework to predict tactically relevant, region-specific injury patterns to enhance early rescue chain activation. Methods Logistic regression models were developed using GIDAS data for front-row occupants, stratified by impact direction. Clinically relevant injury categories were defined based on prehospital tactical criteria. Predictors included crash severity (Energy Equivalent Speed, EES), restraint use, and vehicle characteristics. Performance was assessed via cross-validation and external validation on a recent GIDAS subset, utilizing metrics robust to class imbalance. Results Across all injury groups, the models demonstrated high discrimination (AROC > 0.85 for most groups), robust calibration, and biomechanically plausible associations. Energy-equivalent speed (EES) consistently emerged as the strongest and most reliable predictor of injury severity. Optimized classification thresholds supported the prediction of both global and region-specific trauma. External validation confirmed reproducibility for thorax, head, and overall severe injuries, maintaining high sensitivity and specificity under optimized thresholds. Conclusion Ultimately, this study provides a scientifically robust framework for predicting region-specific injury patterns, with results that can be translated into next-generation eCall systems to inform prehospital triage and decision-support. Clinically, this predictive framework translates crash data into triage intelligence, enabling emergency dispatchers to allocate specialized trauma resources more precisely. While the models demonstrate strong predictive performance on the GIDAS dataset, prospective multicenter validation is ongoing to assess their real-world operational utility.

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Publication Details

Journal
Transportation Research Interdisciplinary Perspectives
Published
2026-06-17
DOI
https://doi.org/10.1016/j.trip.2026.102109
Primary Topic
Traffic and Road Safety
Type
article
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article

Predicting specific injury patterns from crash data: a GIDAS-based and manufacturer-independent logistic regression approach for next generation eCall

Angela Schubert, Christian Kleber, Henrik Liers, Klaus‐Dieter Schaser et al.
Transportation Research Interdisciplinary Perspectives
Traffic and Road Safety
article

Predicting specific injury patterns from crash data: a GIDAS-based and manufacturer-independent logistic regression approach for next generation eCall

Angela Schubert, Christian Kleber, Henrik Liers, Klaus‐Dieter Schaser, Michael Hetz, Thomas Unger
article en

Abstract

Background While prehospital traffic fatalities remain a critical challenge, current eCall systems transmit limited injury-relevant data, and existing prediction models often fail to support targeted prehospital triage. This study developed and validated a manufacturer-independent, data-driven framework to predict tactically relevant, region-specific injury patterns to enhance early rescue chain activation. Methods Logistic regression models were developed using GIDAS data for front-row occupants, stratified by impact direction. Clinically relevant injury categories were defined based on prehospital tactical criteria. Predictors included crash severity (Energy Equivalent Speed, EES), restraint use, and vehicle characteristics. Performance was assessed via cross-validation and external validation on a recent GIDAS subset, utilizing metrics robust to class imbalance. Results Across all injury groups, the models demonstrated high discrimination (AROC > 0.85 for most groups), robust calibration, and biomechanically plausible associations. Energy-equivalent speed (EES) consistently emerged as the strongest and most reliable predictor of injury severity. Optimized classification thresholds supported the prediction of both global and region-specific trauma. External validation confirmed reproducibility for thorax, head, and overall severe injuries, maintaining high sensitivity and specificity under optimized thresholds. Conclusion Ultimately, this study provides a scientifically robust framework for predicting region-specific injury patterns, with results that can be translated into next-generation eCall systems to inform prehospital triage and decision-support. Clinically, this predictive framework translates crash data into triage intelligence, enabling emergency dispatchers to allocate specialized trauma resources more precisely. While the models demonstrate strong predictive performance on the GIDAS dataset, prospective multicenter validation is ongoing to assess their real-world operational utility.

Transportation Research Interdisciplinary PerspectivesVol. 38
University Hospital Leipzig (DE), University Hospital Carl Gustav Carus (DE), Technische Universität Dresden (DE)
Openalex Percentile: Top 7%
Traffic and Road Safety
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