Sleep analysis via wearable sensors in people with Parkinson’s disease

Salvatore Tedesco, Colum Crowe, Marco Sica, Lorna Kenny, Brendan O'Flynn, David Scott Mueller, Suzanne Timmons, John Barton
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Abstract

Parkinson disease (PD), a well-known illness of motor dysfunction, is characterized by a high prevalence of sleep problems due to degenerative brain changes or comorbid conditions [1]. Wearable devices, in the form of actigraphy, have been shown to also be appropriate for monitoring sleep variables in PD patients [2,3] despite reports that current actigraphy algorithms may misinterpret dysfunctional motor activity, such as tremors, bradykinesia, dyskinesia, and limited arm movement while walking, as well as drug-induced hypermotility, thus making their use problematic in people with PD (PwPD) [4]. The ActiGraph GT3X (Pensacola, FL, USA) accelerometer is capable of recording accelerometry measurements for multiple days at 100 Hz, and has been adopted for massive population-level data collections [5]. In the last few years, Van Hees et al. have developed and made freely available open-source software to estimate sleep variables using data collected from similar off-the-shelf wearable inertial sensors [6]. The goal of this study is to investigate if the ActiGraph data, in combination with Van Hees et al.’s heuristic algorithm Distribution of Change in Z-Angle (HDCZA), can correctly estimate sleep variables in PD patients. To the best of the authors’ knowledge, it is the first study that adopts ActiGraph sensors and this methodology for sleep analysis in PwPD. For further comparison, a custom hardware prototype device named WESAA (Wearable Enabled Symptom Assessment Algorithms) developed at the Tyndall National Institute [8] and with the same capabilities as an ActiGraph device was adopted for additional analysis. Nineteen PD subjects took part in a data collection where participants wore the ActiGraph on their most affected wrist for a minimum of 24 hours and simultaneously filled out a sleep diary. Accelerometer data was collected at 100 Hz. Additionally, six subjects repeated the same data collection protocol while wearing the WESAA system. The heuristic algorithm described in [7] was implemented to detect periods of sleep and compared against the participant diaries. Results are shown in Table I and Figure I in the picture below. Accuracy reported on the subjects using the Actigraph was appropriate with an average 77.8±13.6%, even though results were quite variable across patients (between 31.6% and 91.2%). Less variability is shown with the WESAA device, even though only 6 subjects have carried out this data collection, with an average accuracy of 81.9±6.2% (71.8%-90.2%).Download : Download high-res image (157KB)Download : Download full-size image The present investigation shows that ActiGraph accelerometry data collected over 24 hours, in conjunction with the heuristic algorithm HDCZA for the detection of sleep periods, is an appropriate approach to estimate sleep duration even in PwPD. The same algorithm adopted on the WESAA hardware device shows even more promising results but further investigations with a larger sample size are required to confirm this. Funding: This work was supported in part by Enterprise Ireland (EI) and Abbvie, Inc. under agreement IP 2017 0625; and in part by the Science Foundation Ireland which are Co-Funded through the European Regional Development Fund under Grant 12/RC/2289-P2-INSIGHT..
通过穿戴式传感器对帕金森病患者进行睡眠分析
帕金森病(PD)是一种众所周知的运动功能障碍疾病,其特点是由于大脑退行性改变或合并症导致睡眠问题的高发[1]。活动记录仪形式的可穿戴设备也被证明适合监测PD患者的睡眠变量[2,3],尽管有报道称,目前的活动记录仪算法可能会误解功能失调的运动活动,如震颤、运动迟缓、运动障碍、行走时手臂运动受限以及药物引起的运动亢进,从而使其在PD患者(PwPD)中的使用存在问题[4]。ActiGraph GT3X (Pensacola, FL, USA)加速度计能够在100 Hz下记录多天的加速度测量结果,并已被用于大规模的人口数据收集[5]。在过去的几年中,Van Hees等人开发并免费提供了开源软件,利用从类似的现成可穿戴惯性传感器收集的数据来估计睡眠变量[6]。本研究的目的是探讨ActiGraph数据结合Van Hees等人的启发式算法Distribution of Change in Z-Angle (HDCZA)是否能正确估计PD患者的睡眠变量。据作者所知,这是第一个采用ActiGraph传感器和这种方法对PwPD进行睡眠分析的研究。为了进一步比较,我们采用Tyndall National Institute[8]开发的自定义硬件原型设备WESAA (Wearable Enabled Symptom Assessment Algorithms,可穿戴症状评估算法)进行附加分析,该设备与ActiGraph设备具有相同的功能。19名PD受试者参加了一项数据收集,参与者在他们受影响最严重的手腕上佩戴ActiGraph至少24小时,同时填写睡眠日记。加速度计数据以100 Hz的频率收集。此外,六名受试者在佩戴WESAA系统时重复相同的数据收集方案。采用[7]中描述的启发式算法检测睡眠时间,并与参与者日记进行比较。结果如下图表1和图1所示。使用Actigraph的受试者报告的准确率是合适的,平均为77.8±13.6%,尽管不同患者的结果差异很大(31.6%至91.2%)。WESAA装置的变异性较小,尽管只有6名受试者进行了这项数据收集,平均准确率为81.9±6.2%(71.8%-90.2%)。目前的研究表明,在24小时内收集的ActiGraph加速度测量数据,结合启发式算法HDCZA来检测睡眠时间,即使在PwPD中也是一种估计睡眠时间的合适方法。WESAA硬件设备上采用的相同算法显示出更有希望的结果,但需要更大样本量的进一步调查来证实这一点。资金:这项工作由爱尔兰企业(EI)和艾伯维公司根据协议IP 2017 0625部分支持;部分由爱尔兰科学基金会资助,由欧洲区域发展基金在12/RC/2289-P2-INSIGHT下共同资助。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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