移动健康和自闭症:用机器学习和可穿戴设备数据识别压力和焦虑

A. Masino, Daniel Forsyth, H. Nuske, J. Herrington, Jeffrey W. Pennington, Yelena Kushleyeva, Christopher P. Bonafide
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引用次数: 12

摘要

消费级可穿戴设备提供生理测量,可为预测不良后果的移动健康应用程序提供信息。自闭症谱系障碍(ASD)就是一个令人信服的例子。许多ASD患者在生理变化之前表现出具有挑战性的行为。因此,生理测量可以支持实时干预,以避免各种社会环境中的挑战性行为。然而,之前的研究还没有证明使用可穿戴设备数据检测这些变化的方法学方法。我们试图展示一种机器学习方法,该方法使用可穿戴设备数据来区分ASD儿童与压力和非压力情景相关的生理状态。在一个受控的实验室环境中,我们收集了休息和活动期间的心率和RR间隔测量值,这些活动旨在使用消费级可穿戴设备模拟压力。我们的分析包括38名参与者(22名ASD, 16名非ASD)。在去除异常值后,我们从每个患者休息和压力期收集的数据中提取了20个统计特征。使用76个样本期(38个休息期/ 38个压力期)的嵌套留一交叉验证,我们训练并评估了逻辑回归(LR)和支持向量机(SVM)分类器,将每个验证样本标记为休息期或压力期。SVM和LR模型的准确率分别达到93%和87%。这些结果表明,结合可穿戴设备数据的机器学习模型可能支持实时移动医疗干预应用。
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m-Health and Autism: Recognizing Stress and Anxiety with Machine Learning and Wearables Data
Consumer-grade wearables provide physiological measurements which may inform m-health applications that predict adverse outcomes. Autism Spectrum Disorder (ASD) represents a compelling example. Many individuals with ASD present with challenging behaviors that are preceded by physiological changes. Physiological measures could, therefore, support real-time interventions to avert challenging behaviors in various social settings. However, no prior research has demonstrated a methodological approach to detect these changes using wearable device data. We sought to demonstrate a machine learning approach that uses wearables data to differentiate physiological states associated with stressful and non-stressful scenarios in children with ASD. In a controlled laboratory setting, we collected heart rate and RR interval measurements during rest and during activities designed to mimic stress using a consumer-grade wearable device. Our analysis included 38 participants (22 ASD, 16 non-ASD). Following outlier removal, we extracted 20 statistical features from data collected during each patient's rest and stressful periods. Using nested leave-one-out cross-validation over 76 sample periods (38 rest / 38 stress), we trained and evaluated logistic regression (LR) and support vector machine (SVM) classifiers to label each validation sample as a rest or stressful period. The SVM and LR models achieved 93% and 87% accuracy, respectively. These results suggest that machine learning models combined with wearables data may support real-time m-health intervention applications.
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