Benchmark on a large cohort for sleep-wake classification with machine learning techniques

Accurately measuring sleep and its quality with polysomnography (PSG) is an expensive task. Actigraphy, an alternative, has been proven cheap and relatively accurate. However, the largest experiments conducted to date, have had only hundreds of participants. In this work, we processed the data of the recently published Multi-Ethnic Study of Atherosclerosis (MESA) Sleep study to have both PSG and actigraphy data synchronized. We propose the adoption of this publicly available large dataset, which is at least one order of magnitude larger than any other dataset, to systematically compare existing methods for the detection of sleep-wake stages, thus fostering the creation of new algorithms. We also implemented and compared state-of-the-art methods to score sleep-wake stages, which range from the widely used traditional algorithms to recent machine learning approaches. We identified among the traditional algorithms, two approaches that perform better than the algorithm implemented by the actigraphy device used in the MESA Sleep experiments. The performance, in regards to accuracy and F1 score of the machine learning algorithms, was also superior to the device’s native algorithm and comparable to human annotation. Future research in developing new sleep-wake scoring algorithms, in particular, machine learning approaches, will be highly facilitated by the cohort used here. We exemplify this potential by showing that two particular deep-learning architectures, CNN and LSTM, among the many recently created, can achieve accuracy scores significantly higher than other methods for the same tasks.

[1]  A. Sadeh The role and validity of actigraphy in sleep medicine: an update. , 2011, Sleep medicine reviews.

[2]  Andrew M. Dai,et al.  Wearable sensors for Parkinson’s disease: which data are worth collecting for training symptom detection models , 2018, npj Digital Medicine.

[3]  S. Taheri,et al.  The link between short sleep duration and obesity: we should recommend more sleep to prevent obesity , 2006, Archives of Disease in Childhood.

[4]  A. Sadeh,et al.  Activity-based sleep-wake identification: an empirical test of methodological issues. , 1994, Sleep.

[5]  D. White,et al.  A novel adaptive wrist actigraphy algorithm for sleep-wake assessment in sleep apnea patients. , 2004, Sleep.

[6]  Inge Tetens,et al.  Measure of sleep and physical activity by a single accelerometer: Can a waist-worn Actigraph adequately measure sleep in children? , 2012 .

[7]  Guo-Qiang Zhang,et al.  The National Sleep Research Resource: towards a sleep data commons , 2018, BCB.

[8]  Shai Fine,et al.  Actigraphy-based Sleep/Wake Pattern Detection using Convolutional Neural Networks , 2018, ArXiv.

[9]  M. Kothare,et al.  Algorithms for sleep–wake identification using actigraphy: a comparative study and new results , 2009, Journal of sleep research.

[10]  C. Pollak,et al.  The role of actigraphy in the study of sleep and circadian rhythms. , 2003, Sleep.

[11]  Raghvendra Mall,et al.  Differential Community Detection in Paired Biological Networks , 2017, bioRxiv.

[12]  Max Hirshkowitz,et al.  Practice parameters for the role of actigraphy in the study of sleep and circadian rhythms: an update for 2002. , 2003, Sleep.

[13]  Joseph Cheung,et al.  Use of Actigraphy for the Evaluation of Sleep Disorders and Circadian Rhythm Sleep-Wake Disorders: An American Academy of Sleep Medicine Clinical Practice Guideline. , 2018, Journal of clinical sleep medicine : JCSM : official publication of the American Academy of Sleep Medicine.

[14]  G. Jean-Louis,et al.  Actigraphic Assessment of Sleep in Insomnia Application of the Actigraph Data Analysis Software (ADAS) , 1998, Physiology & Behavior.

[15]  D. Kripke,et al.  Evaluation of immobility time for sleep latency in actigraphy. , 2009, Sleep medicine.

[16]  H. Noushmehr,et al.  RGBM: regularized gradient boosting machines for identification of the transcriptional regulators of discrete glioma subtypes , 2018, Nucleic acids research.

[17]  C. Guilleminault,et al.  Comparison of actigraphic, polysomnographic, and subjective assessment of sleep parameters in sleep-disordered patients. , 2001, Sleep medicine.

[18]  Steven B. Heymsfield,et al.  Short Sleep Duration as a Risk Factor for Hypertension: Analyses of the First National Health and Nutrition Examination Survey , 2006, Hypertension.

[19]  P. McCullagh,et al.  Generalized Linear Models, 2nd Edn. , 1990 .

[20]  Yoav Freund,et al.  Large Margin Classification Using the Perceptron Algorithm , 1998, COLT' 98.

[21]  Corinna Cortes,et al.  Support-Vector Networks , 1995, Machine Learning.

[22]  G. Jean-Louis,et al.  Sleep detection with an accelerometer actigraph: comparisons with polysomnography , 2001, Physiology & Behavior.

[23]  Raghvendra Mall,et al.  Detection of statistically significant network changes in complex biological networks , 2016, bioRxiv.

[24]  J. E. Freund,et al.  Modern elementary statistics , 1953 .

[25]  Catrine Tudor-Locke,et al.  Fully automated waist-worn accelerometer algorithm for detecting children's sleep-period time separate from 24-h physical activity or sedentary behaviors. , 2014, Applied physiology, nutrition, and metabolism = Physiologie appliquee, nutrition et metabolisme.

[26]  V. Natale,et al.  Comparison of Two Different Actigraphs with Polysomnography in Healthy Young Subjects , 2008, Chronobiology international.

[27]  L. Piwek,et al.  The Rise of Consumer Health Wearables: Promises and Barriers , 2016, PLoS medicine.

[28]  Jaideep Srivastava,et al.  Robust Automated Human Activity Recognition and Its Application to Sleep Research , 2016, 2016 IEEE 16th International Conference on Data Mining Workshops (ICDMW).

[29]  Wei-Hao Wang,et al.  Studies , 1926 .

[30]  D. Kripke,et al.  Wrist actigraphic scoring for sleep laboratory patients: algorithm development , 2010, Journal of sleep research.

[31]  T. Yoshikawa,et al.  Lifestyle, obesity, and insulin resistance. , 2001, Diabetes care.

[32]  K. Johnson An Update. , 1984, Journal of food protection.

[33]  R. Kronmal,et al.  Multi-Ethnic Study of Atherosclerosis: objectives and design. , 2002, American journal of epidemiology.

[34]  Edward Sazonov,et al.  Activity-based sleep-wake identification in infants. , 2004, Physiological measurement.

[35]  Jürgen Schmidhuber,et al.  Learning to Forget: Continual Prediction with LSTM , 2000, Neural Computation.

[36]  Catherine P. Jayapandian,et al.  Scaling Up Scientific Discovery in Sleep Medicine: The National Sleep Research Resource. , 2016, Sleep.

[37]  Jorge M Serrador,et al.  Cardiovascular, inflammatory, and metabolic consequences of sleep deprivation. , 2009, Progress in cardiovascular diseases.

[38]  A. Luik,et al.  Delivering digital cognitive behavioral therapy for insomnia at scale: does using a wearable device to estimate sleep influence therapy? , 2018, npj Digital Medicine.

[39]  Yoshua Bengio,et al.  Convolutional networks for images, speech, and time series , 1998 .

[40]  J. Solet,et al.  Measuring sleep: accuracy, sensitivity, and specificity of wrist actigraphy compared to polysomnography. , 2013, Sleep.

[41]  Michael Rueschman,et al.  Reproducibility of a Standardized Actigraphy Scoring Algorithm for Sleep in a US Hispanic/Latino Population. , 2015, Sleep.

[42]  Luciane L. de Souza,et al.  Further validation of actigraphy for sleep studies. , 2003, Sleep.

[43]  D. J. Mullaney,et al.  Automatic sleep/wake identification from wrist activity. , 1992, Sleep.

[44]  Raghvendra Mall,et al.  DeepCrystal: A Deep Learning Framework for Sequence-based Protein Crystallization Prediction , 2018, 2018 IEEE International Conference on Bioinformatics and Biomedicine (BIBM).

[45]  D. J. Mullaney,et al.  An activity-based sleep monitor system for ambulatory use. , 1982, Sleep.

[46]  Raghvendra Mall,et al.  DeepSol: a deep learning framework for sequence‐based protein solubility prediction , 2018, Bioinform..

[47]  Pierre Geurts,et al.  Extremely randomized trees , 2006, Machine Learning.