全球定位系统和智能手机技术在医疗保健社区流动性的实际测量。

Q1 Computer Science
Digital Biomarkers Pub Date : 2025-09-01 eCollection Date: 2025-01-01 DOI:10.1159/000548017
Sara Nataletti, Megan K O'Brien, Rachel Maronati, Francesco Lanotte, Shreya Aalla, Christian Poellabauer, Brad D Hendershot, John M Looft, Arun Jayaraman
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引用次数: 0

摘要

物理医学和康复的主要目标是恢复受伤或疾病后的社区活动能力。然而,目前还没有临床认可的实际方法来衡量社区流动性,这从根本上限制了我们评估治疗效果的能力。本研究旨在开发和验证一个使用gps智能手机和惯性传感器的数字框架,以监测慢性中风或下肢截肢(LLA)患者的社区流动性和评估临床功能。方法:对90例慢性脑卒中或LLA患者进行3-9个月的远程监测。参与者完成了标准的临床评估,并从GPS和步数特征中提取了日常活动数据。我们进行了四项分析:(1)群体和个人层面社区活动能力的特征;(2)评估单个病例参与者在针对活动能力进行干预后的活动能力变化;(3)开发机器学习模型,利用社区数据预测临床步态结果;(4)估计可靠预测功能结果所需的最少天数。结果:社区流动性测量揭示了个体之间和个体内部的巨大差异,反映了不同的功能概况。在一个案例研究中,一名LLA患者在个性化干预后表现出活动量和运动多样性的增加。机器学习模型使用14天的社区数据估计6分钟步行测试和10米步行测试分数,其临床可接受的误差范围(7-10%)。只需3-6天的监测就可实现可靠的预测。结论:GPS和基于智能手机的监测提供了一种可行且可扩展的方法来评估现实世界的移动性。这种方法可以缩小护理连续性的关键差距,使我们能够充分评估治疗干预措施的实际影响,同时也减少了对频繁的面对面评估的依赖。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
GPS and Smartphone Technology for Real-World Measurement of Community Mobility in Healthcare.

Introduction: A primary goal of physical medicine and rehabilitation is restoring community mobility after injury or illness. However, there is no clinically accepted real-world method to measure community mobility, which fundamentally limits our ability to evaluate treatment effectiveness. This study aimed to develop and validate a digital framework using GPS-enabled smartphones and inertial sensors to monitor community mobility and estimate clinical function in individuals with chronic stroke or lower limb amputation (LLA).

Methods: Ninety individuals with chronic stroke or LLA underwent remote monitoring for 3-9 months. Participants completed standard clinical assessments, and daily mobility data were extracted from GPS and step count features. We conducted four analyses: (1) characterization of group- and individual-level community mobility, (2) evaluation of mobility changes following a mobility-targeted intervention in a single case participant, (3) development of machine-learned models to predict clinical gait outcomes using community data, and (4) estimation of the minimum number of days needed to reliably predict functional outcomes.

Results: Community mobility measures revealed substantial variability both across and within individuals, reflecting diverse functional profiles. In a case study, a participant with LLA demonstrated increased activity and movement diversity following a personalized intervention. Machine-learned models estimated 6-Minute Walk Test and 10-Meter Walk Test scores with clinically acceptable error margins (7-10%) using as few as 14 days of community data. Reliable predictions were achievable with just 3-6 days of monitoring.

Conclusions: GPS- and smartphone-based monitoring offer a feasible and scalable approach to assess real-world mobility. This approach could close a critical gap in the care continuum and enable us to fully evaluate the real-world impact of treatment interventions while also reducing reliance on frequent in-person evaluations.

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来源期刊
Digital Biomarkers
Digital Biomarkers Medicine-Medicine (miscellaneous)
CiteScore
10.60
自引率
0.00%
发文量
12
审稿时长
23 weeks
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