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Lessons learnt from horse-related human fatalities: Accident analysis using HFACS-Equestrianism.
Meredith Chapman1, Kate Fenner2, Matthew J W Thomas3
1Central Queensland University, Rockhampton, QLD, 4701, Australia.
Heliyon
|February 24, 2025
Summary
Analyzing horse-related fatalities reveals critical safety lessons for equestrianism. Understanding accident causes, including environmental factors and non-technical skills, is key to preventing future human-horse interaction injuries and deaths.
Area of Science:
- Human-horse interaction safety
- Accident analysis in equestrianism
- Risk mitigation strategies
Background:
- Many equestrian injuries and fatalities lack in-depth analysis for future prevention.
- The inherent danger of horse sport is often cited, hindering proactive safety measures.
- Human-horse interactions present unique complexities compared to other high-risk activities.
Purpose of the Study:
- To analyze data from horse-related human fatalities to identify lessons for safer interactions.
- To investigate underlying causes of fatalities using a validated accident analysis framework.
- To inform future health, safety, and welfare advancements in equestrianism.
Main Methods:
- Analysis of Australian National Coronial Information System (NCIS) data (2000-2020).
- Inclusion of 50 human-horse related fatalities.
- Application of the Human Factors Analysis and Classification System-Equestrianism (HFACS-Eq) framework.
Main Results:
- Falls accounted for 56% of fatalities, primarily causing blunt force trauma (96%).
- Horses were identified as the causal factor in 90% of fatalities.
- HFACS-Eq analysis highlighted environmental factors and non-technical skills (communication, supervision, leadership) as critical.
Conclusions:
- Environmental context and non-technical skills are crucial for accident causation and prevention in equestrianism.
- Understanding risk factors and implementing mitigation models enhances human safety and horse welfare.
- Safer human-horse interactions are achievable through comprehensive accident analysis and targeted interventions.
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