Name
#134 Exploring Technologies for Cold Injury Assessment in Austere Environments
Speakers
Content Presented On Behalf Of:
Uniformed Services University
Session Type
Poster
Date
Tuesday, March 3, 2026
Start Time
5:00 PM
End Time
7:00 PM
Location
Prince Georges Expo Hall E
Focus Areas/Topics
Clinical Care, Technology
Learning Outcomes
Following this session, the attendee will be able to:
1. Summarize the feasibility of advanced technologies for earlier, field-deployable cold injury detection in military settings.
2. Compare and interpret real-time monitoring devices for their accuracy, portability, and suitability in military environments.
3. Apply evidence-based recommendations to guide selection of technologies for large-scale military use.
1. Summarize the feasibility of advanced technologies for earlier, field-deployable cold injury detection in military settings.
2. Compare and interpret real-time monitoring devices for their accuracy, portability, and suitability in military environments.
3. Apply evidence-based recommendations to guide selection of technologies for large-scale military use.
Session Currently Live
Description
Cold weather injuries, particularly frostbite, pose a significant threat to military personnel, particularly in the increasingly strategic Arctic. Currently the diagnosis of frostbite is a clinical one, with multiphase bone scintigraphy with SPECT/CT providing a more accurate detection of tissue damage and viability. The unique challenges of extreme cold environments necessitate a more rapid triage system to minimize long-term morbidity. In this study, we explore the feasibility of implementing advanced technologies for earlier, field-deployable cold injury detection. We conducted a comprehensive internet search and literature review to identify emerging and existing technologies capable of real-time temperature monitoring and tissue assessment such as portable infrared thermography and wearable temperature sensors (smart rings). As part of this study, identified technologies were compared based on their accuracy, portability, ease of use, and suitability for austere environments. These findings are expected to enable the identification of field-deployable diagnostic tools, thereby enhancing military readiness and improving medical care in frigid environments.