双相情感障碍被动远程监测的数字生物标志物:系统综述。

Thomas P Kutcher, Isha Chakraborty, Kristin Kostick-Quenet, Akane Sano, Nidal Moukaddam, Jeffrey A Herron, Wayne K Goodman, Sameer A Sheth, Ashutosh Sabharwal, Nicole R Provenza
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引用次数: 0

摘要

背景:双相情感障碍(BD)的特征是在(轻度)躁狂、抑郁、混合状态和心境之间的发作性转变。由于临床接触点不频繁,及时发现情绪转变是困难的。包括可穿戴设备和智能手机在内的数字健康技术为被动和持续监测行为和生理提供了独特的机会,这些行为和生理可以反映现实环境中潜在的情绪动态。目的:我们旨在系统地回顾被动收集的双相障碍情绪状态的数字生物标志物,表征设备/模式和分析方法,评估偏倚风险,并确定临床翻译的设计差距和优先事项。方法:按照PRISMA指南(PROSPERO CRD42024607765),检索MEDLINE、PsycINFO、Scopus、IEEE explore和ACM数字图书馆(2025年2月7日)。我们纳入了同行评议的成年双相障碍I/II患者的研究,这些研究测量了被动收集的数字生物标志物,并将它们与抑郁、(轻度)躁狂、混合或平和状态联系起来。仅主动测量(如实验室检测、生态瞬时评估)和将双相障碍与其他诊断混为一谈的研究被排除在外。两名独立审稿人筛选研究并提取研究特征和结果。我们将数字生物标记物分类,并进行叙事合成。采用PROBAST(预测模型)和Newcastle-Ottawa量表(观察性研究)评估偏倚风险。结果:在8355项记录中,45项研究符合标准。大多数入组≤50人(64%),监测≤100天(49%);29%仅收集临床数据。出现了9个生物标记域:身体活动、心率(HR)、皮肤电活动(EDA)、地理位置、键盘使用、光照、睡眠、社交和语言。一致的模式将抑郁症与活动能力和社会互动减少、睡眠时间较晚/不稳定以及白天光照不足联系起来;(轻度)躁狂症与更高和更多变的活动、更短/更深入的睡眠和更多的交流有关。来自睡眠/活动的昼夜节律特征反复辅助预测。抑郁症患者EDA水平较低;不同环境和方法的HRV结果是混合的。键盘和语音特征(如计时、韵律)在分类器中表现良好。15项研究使用ML;一些研究报告了很强的发作预测/分类性能(AUROC在较大队列中≈0.80-0.98),但缺乏外部验证,样本较小,监测窗口相对于发作时间尺度通常较短,临床标签不频繁/不一致,尽管可能具有信息性,但缺失很少建模。结论:双相障碍的被动数字生物标志物显示出前景,最强大的信号与DSM-5行为和昼夜节律特征(睡眠-觉醒模式、活动/流动性、社交/地理位置和语言)一致。为了从承诺走向实践,未来的研究应该采用更长时间的受试者内部监测,使标签节奏与传感粒度保持一致,标准化特征/报告,预注册分析,外部验证模型,最小化数据以保护隐私,并将生理测量扩展到心率和皮肤电活动之外。这些步骤对于开发可靠的、可操作的工具来早期发现和管理双相障碍情绪发作是必不可少的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Digital Biomarkers for Passive Remote Monitoring of Bipolar Disorder: Systematic Review.

Background: Bipolar disorder (BD) features episodic shifts among (hypo)mania, depression, mixed states, and euthymia. Timely detection of mood transitions is difficult due to infrequent clinical touchpoints. Digital health technologies, including wearables and smartphones, offer a unique opportunity to passively and continuously monitor behavior and physiology that could reflect underlying mood dynamics in real-world settings.

Objective: We aim to systematically review passively collected digital biomarkers for BD mood states, characterize devices/modalities and analytic approaches, appraise risk of bias, and identify design gaps and priorities for clinical translation.

Methods: Following PRISMA guidelines (PROSPERO CRD42024607765), we searched MEDLINE, PsycINFO, Scopus, IEEE Xplore, and ACM Digital Library (February 7, 2025). We included peer-reviewed studies of adults with BD I/II that measured passively collected digital biomarkers and related them to depressive, (hypo)manic, mixed, or euthymic states. Active-only measures (e.g. lab tests, ecological-momentary assessment) and studies entangling BD with other diagnoses were excluded. Two independent reviewers screened studies and extracted study characteristics and results. We grouped digital biomarkers into categories and conducted narrative synthesis. Risk of bias was assessed with PROBAST (predictive models) and the Newcastle-Ottawa Scale (observational studies).

Results: Of 8,355 records, 45 studies met criteria. Most enrolled ≤50 participants (64%) and monitored ≤100 days (49%); 29% collected data only in-clinic. Nine biomarker domains emerged: physical activity, heart rate (HR), electrodermal activity (EDA), geolocation, keyboard use, light exposure, sleep, socialization, and speech. Consistent patterns linked depression to reduced mobility and social interaction, later/variable sleep, and lower daytime light; (hypo)mania was associated with higher and more variable activity, shorter/advanced sleep, and increased communication. Circadian features derived from sleep/activity repeatedly aided prediction. EDA tended to be lower in depression; HRV findings were mixed across settings and methods. Keyboard and speech features (e.g., timing, prosody) showed associations and performed well in classifiers. Fifteen studies used ML; several reported strong performance for episode prediction/classification (AUROC ≈0.80-0.98 in larger cohorts), yet external validation was absent, samples were small, monitoring windows were often short relative to episode timescales, clinical labels were infrequent/misaligned, and missingness was rarely modeled despite likely informativeness.

Conclusions: Passive digital biomarkers for BD show promise, with the most robust signals aligning with DSM-5 behavioral and circadian features (sleep-wake patterns, activity/mobility, socialization/geolocation, and speech). To move from promise to practice, future studies should adopt longer within-subject monitoring, align label cadence with sensing granularity, standardize features/reporting, pre-register analyses, externally validate models, minimize data to protect privacy, and expand physiological measurement beyond heart rate and electrodermal activity. These steps are essential to develop reliable, actionable tools for earlier detection and management of BD mood episodes.

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