Investigating the Perceived Precision and validity of a Field-Deployable Machine Learning-based Tool to Detect Post-Traumatic Stress Disorder (PTSD) Hyperarousal Events
Mahnoosh Sadeghi, Farzan Sasangohar, Anthony D McDonald

TL;DR
This study evaluates a machine learning tool for detecting PTSD hyperarousal events based on physiological data, focusing on users' perceived accuracy and trust in a real-world home setting.
Contribution
It provides the first naturalistic validation of a PTSD detection tool, emphasizing user perception and trust, which are crucial for real-world adoption.
Findings
Over 65% perceived precision in naturalistic validation
Longitudinal exposure may increase user trust in automation
Highlights importance of user perception for technology adoption
Abstract
Post Traumatic Stress Disorder is a psychiatric condition experienced by individuals after exposure to a traumatic event. Prior work has shown promise in detecting PTSD using physiological data such as heart rate. Despite the promise shown by the machine learning based algorithms for PTSD, the validation approaches used in previous research largely rely on theoretical and computational validation methods rather than naturalistic evaluations that account for users perceived precision and validity. Previous research has shown that users perceptions of physiological changes may not always align well with automated detection of such variables and such misalignment may lead to distrust in automated detection which may affect adoption or sustainable usage of such technologies. Therefore, the goal of this article is to investigate the perceived precision of the PTSD hyperarousal detection tool…
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Taxonomy
TopicsPosttraumatic Stress Disorder Research · Traumatic Brain Injury Research · Heart Rate Variability and Autonomic Control
