Longitudinally tracking personal physiomes for precision management of childhood epilepsy.

Our current understanding of human physiology and activities is largely derived from sparse and discrete individual clinical measurements. To achieve precise, proactive, and effective health management of an individual, longitudinal, and dense tracking of personal physiomes and activities is require...

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Main Authors: Peifang Jiang, Feng Gao, Sixing Liu, Sai Zhang, Xicheng Zhang, Zhezhi Xia, Weiqin Zhang, Tiejia Jiang, Jason L Zhu, Zhaolei Zhang, Qiang Shu, Michael Snyder, Jingjing Li
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2022-12-01
Series:PLOS Digital Health
Online Access:https://doi.org/10.1371/journal.pdig.0000161
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author Peifang Jiang
Feng Gao
Sixing Liu
Sai Zhang
Xicheng Zhang
Zhezhi Xia
Weiqin Zhang
Tiejia Jiang
Jason L Zhu
Zhaolei Zhang
Qiang Shu
Michael Snyder
Jingjing Li
author_facet Peifang Jiang
Feng Gao
Sixing Liu
Sai Zhang
Xicheng Zhang
Zhezhi Xia
Weiqin Zhang
Tiejia Jiang
Jason L Zhu
Zhaolei Zhang
Qiang Shu
Michael Snyder
Jingjing Li
author_sort Peifang Jiang
collection DOAJ
description Our current understanding of human physiology and activities is largely derived from sparse and discrete individual clinical measurements. To achieve precise, proactive, and effective health management of an individual, longitudinal, and dense tracking of personal physiomes and activities is required, which is only feasible by utilizing wearable biosensors. As a pilot study, we implemented a cloud computing infrastructure to integrate wearable sensors, mobile computing, digital signal processing, and machine learning to improve early detection of seizure onsets in children. We recruited 99 children diagnosed with epilepsy and longitudinally tracked them at single-second resolution using a wearable wristband, and prospectively acquired more than one billion data points. This unique dataset offered us an opportunity to quantify physiological dynamics (e.g., heart rate, stress response) across age groups and to identify physiological irregularities upon epilepsy onset. The high-dimensional personal physiome and activity profiles displayed a clustering pattern anchored by patient age groups. These signatory patterns included strong age and sex-specific effects on varying circadian rhythms and stress responses across major childhood developmental stages. For each patient, we further compared the physiological and activity profiles associated with seizure onsets with the personal baseline and developed a machine learning framework to accurately capture these onset moments. The performance of this framework was further replicated in another independent patient cohort. We next referenced our predictions with the electroencephalogram (EEG) signals on selected patients and demonstrated that our approach could detect subtle seizures not recognized by humans and could detect seizures prior to clinical onset. Our work demonstrated the feasibility of a real-time mobile infrastructure in a clinical setting, which has the potential to be valuable in caring for epileptic patients. Extension of such a system has the potential to be leveraged as a health management device or longitudinal phenotyping tool in clinical cohort studies.
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spelling doaj.art-5039081464f247cd824ce6835f2e08352023-09-03T14:14:29ZengPublic Library of Science (PLoS)PLOS Digital Health2767-31702022-12-01112e000016110.1371/journal.pdig.0000161Longitudinally tracking personal physiomes for precision management of childhood epilepsy.Peifang JiangFeng GaoSixing LiuSai ZhangXicheng ZhangZhezhi XiaWeiqin ZhangTiejia JiangJason L ZhuZhaolei ZhangQiang ShuMichael SnyderJingjing LiOur current understanding of human physiology and activities is largely derived from sparse and discrete individual clinical measurements. To achieve precise, proactive, and effective health management of an individual, longitudinal, and dense tracking of personal physiomes and activities is required, which is only feasible by utilizing wearable biosensors. As a pilot study, we implemented a cloud computing infrastructure to integrate wearable sensors, mobile computing, digital signal processing, and machine learning to improve early detection of seizure onsets in children. We recruited 99 children diagnosed with epilepsy and longitudinally tracked them at single-second resolution using a wearable wristband, and prospectively acquired more than one billion data points. This unique dataset offered us an opportunity to quantify physiological dynamics (e.g., heart rate, stress response) across age groups and to identify physiological irregularities upon epilepsy onset. The high-dimensional personal physiome and activity profiles displayed a clustering pattern anchored by patient age groups. These signatory patterns included strong age and sex-specific effects on varying circadian rhythms and stress responses across major childhood developmental stages. For each patient, we further compared the physiological and activity profiles associated with seizure onsets with the personal baseline and developed a machine learning framework to accurately capture these onset moments. The performance of this framework was further replicated in another independent patient cohort. We next referenced our predictions with the electroencephalogram (EEG) signals on selected patients and demonstrated that our approach could detect subtle seizures not recognized by humans and could detect seizures prior to clinical onset. Our work demonstrated the feasibility of a real-time mobile infrastructure in a clinical setting, which has the potential to be valuable in caring for epileptic patients. Extension of such a system has the potential to be leveraged as a health management device or longitudinal phenotyping tool in clinical cohort studies.https://doi.org/10.1371/journal.pdig.0000161
spellingShingle Peifang Jiang
Feng Gao
Sixing Liu
Sai Zhang
Xicheng Zhang
Zhezhi Xia
Weiqin Zhang
Tiejia Jiang
Jason L Zhu
Zhaolei Zhang
Qiang Shu
Michael Snyder
Jingjing Li
Longitudinally tracking personal physiomes for precision management of childhood epilepsy.
PLOS Digital Health
title Longitudinally tracking personal physiomes for precision management of childhood epilepsy.
title_full Longitudinally tracking personal physiomes for precision management of childhood epilepsy.
title_fullStr Longitudinally tracking personal physiomes for precision management of childhood epilepsy.
title_full_unstemmed Longitudinally tracking personal physiomes for precision management of childhood epilepsy.
title_short Longitudinally tracking personal physiomes for precision management of childhood epilepsy.
title_sort longitudinally tracking personal physiomes for precision management of childhood epilepsy
url https://doi.org/10.1371/journal.pdig.0000161
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