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Modeling Oculomotor Variability During Slow Cabin Decompression Using Infrared Technology

Jennifer E Thropp et al · Embry-Riddle Aeronautical University · 2018

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<p><a>Slow cabin decompression is highly perilous due to its gradual and thus generally inconspicuous nature. In an applied approach to studying its effects upon oculomotor performance, experienced pilots performed a simulated flight task during slow decompression inside a high-altitude chamber while an infrared-based head-mounted eye-tracker measured oculomotor and pupillary changes at approximately 5% decrements in blood oxygen saturation. Saccade angle, saccade duration, saccadic velocity, microsaccade rate, fixation duration, and pupil diameter varied systematically in response to manipulation of blood oxygen saturation level, including recovery upon return to normoxia. Changes in these oculomotor variables can serve as biomarkers for early hypoxia exposure in pilots, likely before the first subjective symptom is recognized, and can be detected with lower-resolution, non-invasive infrared technology.</a></p> <p><strong>Abstract</strong></p> <p><a>Slow cabin decompression is highly perilous due to its gradual and thus generally inconspicuous nature. In an applied approach to studying its effects upon oculomotor performance, experienced pilots performed a simulated flight task during slow decompression inside a high-altitude chamber while an infrared-based head-mounted eye-tracker measured oculomotor and pupillary changes at approximately 5% decrements in blood oxygen saturation. Saccade angle, saccade duration, saccadic velocity, microsaccade rate, fixation duration, and pupil diameter varied systematically in response to manipulation of blood oxygen saturation level, including recovery upon return to normoxia. Changes in these oculomotor variables can serve as biomarkers for early hypoxia exposure in pilots, likely before the first subjective symptom is recognized, and can be detected with lower-resolution, non-invasive infrared technology.</a></p> <p><strong>Keywords: Saccadic velocity, Oculometrics, Eye-tracking, Slow decompression</strong></p>

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APA 7

al, J. E. T. E. (2018). Modeling Oculomotor Variability During Slow Cabin Decompression Using Infrared Technology. https://doi.org/10.58940/2374-6793.1292

MLA

al, Jennifer E Thropp et. "Modeling Oculomotor Variability During Slow Cabin Decompression Using Infrared Technology." 2018. https://doi.org/10.58940/2374-6793.1292.

Chicago

al, Jennifer E Thropp et. 2018. "Modeling Oculomotor Variability During Slow Cabin Decompression Using Infrared Technology.". https://doi.org/10.58940/2374-6793.1292.

Harvard

al, J. E. T. E. 2018, Modeling Oculomotor Variability During Slow Cabin Decompression Using Infrared Technology, Embry-Riddle Aeronautical University, available at: https://doi.org/10.58940/2374-6793.1292 [Accessed 9 Aug. 2026].

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Title
Modeling Oculomotor Variability During Slow Cabin Decompression Using Infrared Technology
Author / contributors
Jennifer E Thropp et al
Publisher
Embry-Riddle Aeronautical University
Publication year
2018
ISSN
2374-6793
ISSN
2374-6793
Language
English

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