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从家庭血氧记录评估机器学习方法估算睡眠呼吸暂停严重程度。

Evaluation of Machine-Learning Approaches to Estimate Sleep Apnea Severity From At-Home Oximetry Recordings.

出版信息

IEEE J Biomed Health Inform. 2019 Mar;23(2):882-892. doi: 10.1109/JBHI.2018.2823384. Epub 2018 Apr 5.

DOI:10.1109/JBHI.2018.2823384
PMID:29993673
Abstract

Complexity, costs, and waiting list issues demand a simplified alternative for sleep apnea-hypopnea syndrome (SAHS) diagnosis. The blood oxygen saturation signal (SpO) carries useful information about SAHS and can be easily acquired from overnight oximetry. In this study, SpO single-channel recordings from 320 subjects were obtained at patients' homes and were used to automatically obtain statistical, spectral, nonlinear, and clinical SAHS-related information. Relevant, nonredundant data from these analyses were subsequently used to train and validate four machine-learning methods with the ability to classify SpO signals into one of the four SAHS-severity degrees (no-SAHS, mild, moderate, and severe). All the models trained (linear discriminant analysis, 1-vs-all logistic regression, Bayesian multilayer perceptron, and AdaBoost) outperformed the diagnostic ability of the conventionally used 3% oxygen desaturation index. An AdaBoost model built with linear discriminants as base classifiers reached the highest figures. It achieved 0.479 Cohen's κ in the SAHS severity classification, as well as 92.9%, 87.4%, and 78.7% accuracies in binary classification tasks using increasing severity thresholds (apnea-hypopnea index: 5, 15, and 30 events/hour, respectively). These results suggest that machine-learning can be used along with SpO information acquired at a patients' home to help in SAHS diagnosis simplification.

摘要

复杂性、成本和等待名单问题要求为睡眠呼吸暂停低通气综合征(SAHS)诊断提供一种简化的替代方法。血氧饱和度信号(SpO)携带有关 SAHS 的有用信息,并且可以从夜间血氧仪中轻松获取。在这项研究中,从 320 名患者的家中获得了 SpO 单通道记录,并用于自动获取统计、频谱、非线性和与临床相关的 SAHS 信息。随后,使用这些分析的相关非冗余数据来训练和验证四种具有将 SpO 信号分类为四个 SAHS 严重程度之一(无 SAHS、轻度、中度和重度)能力的机器学习方法。所有训练的模型(线性判别分析、一对一逻辑回归、贝叶斯多层感知机和 AdaBoost)均优于传统使用的 3%氧减饱和度指数的诊断能力。使用线性判别作为基分类器构建的 AdaBoost 模型达到了最高水平。它在 SAHS 严重程度分类中达到了 0.479 的 Cohen κ,在使用递增严重程度阈值(呼吸暂停-低通气指数:分别为 5、15 和 30 次/小时)的二进制分类任务中分别达到了 92.9%、87.4%和 78.7%的准确率。这些结果表明,机器学习可以与在家中获取的 SpO 信息一起用于帮助简化 SAHS 诊断。

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