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Predicting long-term sleep deprivation using wearable sensors and health surveys

Published: 18 October 2024 Publication History

Abstract

Sufficient sleep is essential for individual well-being. Inadequate sleep has been shown to have significant negative impacts on our attention, cognition, and mood. The measurement of sleep from in-bed physiological signals has progressed to where commercial devices already incorporate this functionality. However, the prediction of sleep duration from previous awake activity is less studied. Previous studies have used daily exercise summaries, actigraph data, and pedometer data to predict sleep during individual nights. Building upon these, this article demonstrates how to predict a person’s long-term average sleep length over the course of 30 days from Fitbit-recorded physical activity data alongside self-report surveys. Recursive Feature Elimination with Random Forest (RFE-RF) is used to extract the feature sets used by the machine learning models, and sex differences in the feature sets and performances of different machine learning models are then examined. The feature selection process demonstrates that previous sleep patterns and physical exercise are the most relevant kind of features for predicting sleep. Personality and depression metrics were also found to be relevant. When attempting to classify individuals as being long-term sleep-deprived, good performance was achieved across both the male, female, and combined data sets, with the highest-performing model achieving an AUC of 0.9762. The best-performing regression model for predicting the average nightly sleep time achieved an R-squared of 0.6861, with other models achieving similar results. When attempting to predict if a person who previously was obtaining sufficient sleep would become sleep-deprived, the best-performing model obtained an AUC of 0.9448.

Highlights

Fitbit data was used with health surveys to predict long-term insufficient sleep.
Recursive Feature Elimination was used to select features.
Models were trained that included and excluded previous months’ sleep measurements.
The most important features were physical activity, past sleep, and depression.
Sex differences in feature selection and performance were analyzed.

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        Published In

        cover image Computers in Biology and Medicine
        Computers in Biology and Medicine  Volume 179, Issue C
        Sep 2024
        1424 pages

        Publisher

        Pergamon Press, Inc.

        United States

        Publication History

        Published: 18 October 2024

        Author Tags

        1. Sleep prediction
        2. Wearable devices
        3. Machine learning
        4. Recursive feature elimination
        5. Sleep deprivation

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