Javascript must be enabled to continue!
Open-source Longitudinal Sleep Analysis From Accelerometer Data (DPSleep): Algorithm Development and Validation (Preprint)
View through CrossRef
BACKGROUND
Wearable devices are now widely available to collect continuous objective behavioral data from individuals and to measure sleep.
OBJECTIVE
This study aims to introduce a pipeline to infer sleep onset, duration, and quality from raw accelerometer data and then quantify the relationships between derived sleep metrics and other variables of interest.
METHODS
The pipeline released here for the deep phenotyping of sleep, as the <i>DPSleep</i> software package, uses a stepwise algorithm to detect missing data; within-individual, minute-based, spectral power percentiles of activity; and iterative, forward-and-backward–sliding windows to estimate the major Sleep Episode onset and offset. Software modules allow for manual quality control adjustment of the derived sleep features and correction for time zone changes. In this paper, we have illustrated the pipeline with data from participants studied for more than 200 days each.
RESULTS
Actigraphy-based measures of sleep duration were associated with self-reported sleep quality ratings. Simultaneous measures of smartphone use and GPS location data support the validity of the sleep timing inferences and reveal how phone measures of sleep timing can differ from actigraphy data.
CONCLUSIONS
We discuss the use of DPSleep in relation to other available sleep estimation approaches and provide example use cases that include multi-dimensional, deep longitudinal phenotyping, extended measurement of dynamics associated with mental illness, and the possibility of combining wearable actigraphy and personal electronic device data (eg, smartphones and tablets) to measure individual differences across a wide range of behavioral variations in health and disease. A new open-source pipeline for deep phenotyping of sleep, DPSleep, analyzes raw accelerometer data from wearable devices and estimates sleep onset and offset while allowing for manual quality control adjustments.
Title: Open-source Longitudinal Sleep Analysis From Accelerometer Data (DPSleep): Algorithm Development and Validation (Preprint)
Description:
BACKGROUND
Wearable devices are now widely available to collect continuous objective behavioral data from individuals and to measure sleep.
OBJECTIVE
This study aims to introduce a pipeline to infer sleep onset, duration, and quality from raw accelerometer data and then quantify the relationships between derived sleep metrics and other variables of interest.
METHODS
The pipeline released here for the deep phenotyping of sleep, as the <i>DPSleep</i> software package, uses a stepwise algorithm to detect missing data; within-individual, minute-based, spectral power percentiles of activity; and iterative, forward-and-backward–sliding windows to estimate the major Sleep Episode onset and offset.
Software modules allow for manual quality control adjustment of the derived sleep features and correction for time zone changes.
In this paper, we have illustrated the pipeline with data from participants studied for more than 200 days each.
RESULTS
Actigraphy-based measures of sleep duration were associated with self-reported sleep quality ratings.
Simultaneous measures of smartphone use and GPS location data support the validity of the sleep timing inferences and reveal how phone measures of sleep timing can differ from actigraphy data.
CONCLUSIONS
We discuss the use of DPSleep in relation to other available sleep estimation approaches and provide example use cases that include multi-dimensional, deep longitudinal phenotyping, extended measurement of dynamics associated with mental illness, and the possibility of combining wearable actigraphy and personal electronic device data (eg, smartphones and tablets) to measure individual differences across a wide range of behavioral variations in health and disease.
A new open-source pipeline for deep phenotyping of sleep, DPSleep, analyzes raw accelerometer data from wearable devices and estimates sleep onset and offset while allowing for manual quality control adjustments.
Related Results
DPSleep: Open-Source Longitudinal Sleep Analysis From Accelerometer Data
DPSleep: Open-Source Longitudinal Sleep Analysis From Accelerometer Data
Wearable devices are now widely available to collect continuous objective behavioral data from individuals and to measure sleep. Here we introduce a pipeline to infer sleep onset, ...
Acupuncture as therapeutic resource in patient with bruxism
Acupuncture as therapeutic resource in patient with bruxism
Bruxism is the harmful habit of clenching or grinding the teeth during the day and / or night, with unconscious pattern, with particular intensity and frequency, outside the functi...
0279 Sleep Hygiene for Sleep Health in the General Population: What Does Data From Consumer Sleep Technology Tell Us?
0279 Sleep Hygiene for Sleep Health in the General Population: What Does Data From Consumer Sleep Technology Tell Us?
Abstract
Introduction
Despite being used and widely recommended since the 1970s, few studies have examined whether adherence to ...
0202 Predicting Sleep Inertia in a Biomathematical Model of Fatigue and Performance: A Novel Approach
0202 Predicting Sleep Inertia in a Biomathematical Model of Fatigue and Performance: A Novel Approach
Abstract
Introduction
Biomathematical models of fatigue typically include sleep inertia as an additive process during wakefulnes...
Deep sleep homeostatic response to naturalistic sleep loss
Deep sleep homeostatic response to naturalistic sleep loss
Abstract
Introduction
Investigations of sleep homeostasis often involve tightly controlled experimental sleep deprivation in se...
The history of sleep research and sleep medicine in Europe
The history of sleep research and sleep medicine in Europe
SummarySleep became a subject of scientific research in the second half of the 19th century. Since sleep, unlike other physiological functions, cannot be attributed to a specific o...
0864 Severe Central Sleep Apnea
0864 Severe Central Sleep Apnea
Abstract
Introduction
Central sleep apnea (CSA) is a rare form of sleep disordered breathing with repeated apneic episodes with ...
Influence of sex hormone use on sleep architecture in a transgender cohort: findings from the prospective RESTED study
Influence of sex hormone use on sleep architecture in a transgender cohort: findings from the prospective RESTED study
Abstract
Sex differences in sleep architecture are well-documented, with females experiencing longer total sleep time (TST), more slow wave sleep (SWS) and shorter ...

