Wearable Sensors and Smartphone Apps as Pedometers in eHealth: a Comparative Accuracy, Reliability and User Evaluation

Thanos G. Stavropoulos, Stelios Andreadis, Lampros Mpaltadoros, S. Nikolopoulos, Y. Kompatsiaris
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引用次数: 3

Abstract

Research in sensor technology has provided the scientific community with advanced sensors with higher speed and lower costs, promoting the manufacturing of more efficient, comfortable and affordable wearable devices coupled with pervasive smartphone app usage. A prominent use of wearables and apps is to leverage built-in accelerometers to estimate the user’s steps as a measure of physical activity in an eHealth and well-being context. This study aims to evaluate the accuracy, reliability and user preferences of nine prominent devices and apps in a trial with 33 healthy adults, in natural walking conditions. Based on sales, functions and capabilities we selected 5 wearable devices (Jawbone UP3, Jawbone UP24, Fitbit Charge HR, Fitbit Zip and Microsoft Band) and 4 smartphone apps (Google Fit, Accupedo, Noom Walk and Runtastic). The experiment consisted of three walking tasks, from short to long walking, performed in a wide hallway instead of a treadmill. Steps were counted using a tally counter and measurements were gathered after each task, in software developed for analysis. Results also include data loss and reliability, user preferences and evaluation of trackers through a tailored questionnaire. This generation of devices showed increased accuracy, with error rates of around 5%, mostly in long trials, and small loss of data. Applications are generally showing less accuracy. The study shows that there are trackers in the market that combine high accuracy, reliability, features desired by users and affordable prices, which make them suitable for eHealth applications.
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可穿戴传感器和智能手机应用程序作为电子健康计步器:比较准确性、可靠性和用户评估
传感器技术的研究为科学界提供了速度更快、成本更低的先进传感器,促进了更高效、更舒适、更实惠的可穿戴设备的制造,以及智能手机应用程序的普及。可穿戴设备和应用程序的一个突出用途是利用内置加速度计来估计用户的步数,作为电子健康和健康环境下的身体活动衡量标准。这项研究旨在评估33名健康成年人在自然步行条件下的9种主要设备和应用程序的准确性、可靠性和用户偏好。根据销售额、功能和能力,我们选择了5款可穿戴设备(Jawbone UP3、Jawbone UP24、Fitbit Charge HR、Fitbit Zip和Microsoft Band)和4款智能手机应用(Google Fit、Accupedo、Noom Walk和Runtastic)。实验包括三个步行任务,从短距离到长距离,在宽阔的走廊上进行,而不是在跑步机上进行。使用计数计数器计算步骤,并在每个任务后收集测量结果,在开发用于分析的软件中。结果还包括数据丢失和可靠性、用户偏好以及通过量身定制的问卷对跟踪器进行评估。这一代设备显示出更高的准确性,错误率在5%左右,主要是在长时间的试验中,数据丢失很少。应用程序通常显示较低的准确性。研究表明,市场上有一些追踪器结合了高精度、可靠性、用户期望的功能和可承受的价格,这使得它们适合电子健康应用。
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