Department of Otorhinolaryngology-Head and Neck Surgery, University of Maryland School of Medicine, Baltimore, MD, USA.
Division of Pulmonology, Department of Pediatrics, The Johns Hopkins University School of Medicine, Baltimore, MD, USA.
Pediatr Res. 2020 Sep;88(3):404-411. doi: 10.1038/s41390-020-0944-0. Epub 2020 May 9.
Approximately 500,000 children undergo tonsillectomy and adenoidectomy (T&A) annually for treatment of obstructive sleep disordered breathing (oSDB). Although polysomnography is beneficial for preoperative risk stratification in these children, its expanded use is limited by the associated costs and resources needed. Therefore, we used machine learning and data from potentially wearable sensors to identify children needing postoperative overnight monitoring based on the polysomnographic severity of oSDB.
Children aged 2-17 years undergoing polysomnography were included. Six machine learning models were created using (i) clinical parameters and (ii) nocturnal actigraphy and oxygen desaturation index. The prediction performance for polysomnography-derived severity of oSDB measured by apnea hypopnea index (AHI) >2 and >10 were evaluated.
One hundred and ninety children were included. One hundred and eight were male (57%), mean age was 6.7 years [95% confidence interval; 6.1, 7.2], and mean AHI was 10.6 [7.8, 13.4]. Predictive performance utilizing clinical parameters was poor for both AHI > 2 (accuracy range: 48-56% for all models) and AHI > 10 (50-61%). Combining oximetry and actigraphy improved the accuracy to 87-89% for AHI > 2 and 95-96% for AHI > 10.
Machine learning with oximetry and actigraphy identifies most children needing overnight monitoring as determined by polysomnographic severity of oSDB, supporting a potential resource-conscious screening pathway for children undergoing T&A.
We provide proof of principle for the utility of machine learning, oximetry, and actigraphy to screen for severe obstructive sleep apnea syndrome (OSAS) in children. Clinical parameters perform poorly in predicting the severity of OSAS, which is confirmed in the current study. The predictive accuracy for severe OSAS was improved by a smaller subset of quantifiable physiologic parameters, such as oximetry. The results of this study support a lower cost, patient-friendly screening pathway to identify children in need of in-hospital observation after surgery.
每年约有 50 万名儿童因阻塞性睡眠呼吸障碍(OSDB)接受扁桃体切除术和腺样体切除术(T&A)治疗。尽管多导睡眠图对这些儿童的术前风险分层有益,但由于相关成本和所需资源的限制,其应用范围有限。因此,我们使用机器学习和潜在可穿戴传感器的数据,根据 OSDB 的多导睡眠图严重程度,确定需要术后过夜监测的儿童。
纳入 2-17 岁接受多导睡眠图检查的儿童。使用(i)临床参数和(ii)夜间活动记录仪和氧减饱和指数创建了 6 个机器学习模型。评估了用于测量 OSDB 严重程度的多导睡眠图衍生的呼吸暂停低通气指数(AHI)>2 和>10 的预测性能。
共纳入 190 名儿童。其中 108 名(57%)为男性,平均年龄为 6.7 岁[95%置信区间(CI):6.1,7.2],平均 AHI 为 10.6[7.8,13.4]。利用临床参数对 AHI>2(所有模型的准确率范围为 48-56%)和 AHI>10(50-61%)的预测性能均较差。将血氧饱和度和活动记录仪结合使用,可将 AHI>2 的准确率提高至 87-89%,将 AHI>10 的准确率提高至 95-96%。
多导睡眠图严重程度的机器学习与血氧饱和度和活动记录仪相结合,可识别出大多数需要进行过夜监测的儿童,支持 T&A 术后进行资源意识筛查的潜在途径。
我们提供了使用机器学习、血氧饱和度和活动记录仪筛查儿童重度阻塞性睡眠呼吸暂停综合征(OSAS)的原理证明。本研究证实,临床参数在预测 OSAS 严重程度方面表现不佳,而当前研究则证实了这一点。通过少量可量化的生理参数(如血氧饱和度),可提高重度 OSAS 的预测准确性。本研究结果支持建立一种成本更低、患者友好的筛查途径,以确定手术后需要在医院观察的儿童。