Decision Support for Tactical Combat Casualty Care Using Machine Learning to Detect Shock
Christopher Nemeth1, Adam Amos-Binks1, Christie Burris1
1Applied Research Associates, Albuquerque, NM 87110, USA.
Military Medicine
|January 27, 2021
Summary
A new mobile decision support system uses machine learning to help medics detect and differentiate shock in prehospital tactical combat casualty care, predicting onset 90 minutes in advance with over 75% accuracy.
Area of Science:
- Medical Informatics
- Machine Learning in Healthcare
- Prehospital Care
Background:
- Complex Prolonged Field Care in austere settings requires enhanced support for inexperienced providers.
- Effective tools are needed to assist in treating patients during tactical combat casualty care.
- Accurate detection and differentiation of shock are critical in prehospital settings.
Purpose of the Study:
- To develop a phone-/tablet-based decision support system for prehospital tactical combat casualty care.
- To utilize machine learning for detecting and differentiating shock manifestations.
- To augment medic decision-making with salient patient data.
Main Methods:
- Software interface developed through literature review, rapid prototyping, and expert design reviews.
- Machine learning model trained on MIMIC and de-identified Mayo Clinic ICU data.
- Logistic regression model selected as the best performing algorithm.
Main Results:
- 17 military medical subject matter experts provided design requirements.
- The machine learning algorithm predicted shock onset 90 minutes prior to occurrence.
- The model achieved over 75% accuracy in predicting shock in the test dataset.
Conclusions:
- The Trauma Triage, Treatment, and Training Decision Support system will enhance medic decision-making.
- The system aids in diagnosing multiple types of shock.
- Remotely trained, field-deployed machine learning models support enhanced care.
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