验证心理健康应用的算法和传感器数据的集成过程

Victoria López, Pavel Llamocca, Diego Urgelés, Yury Jiménez, César Guevara, C. Viñals, Maria Espinosa
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引用次数: 0

摘要

情绪紊乱变得越来越频繁,特别是在大流行之后,分析和预防这种紊乱的重要性已经变得很明显。在最严重的情况下,人们可能患上抑郁症或双相情感障碍,导致住院或请病假,对个人及其环境造成严重的经济和社会后果。由于科技的发展,有越来越多的便携式设备用于监测个人的日常活动。收集的数据不仅对了解个人的环境非常有用,而且对描述他们的情绪状况也很有用。然而,良好的监测需要使用各种信息源。医疗咨询是传统的信息来源,但在许多情况下,这种信息缺乏或不足。新的信息来源是多种多样的:智能设备,如智能手表,甚至是手机本身,各种类型的便携式传感器,甚至是社交网络上的活动记录。所有这些数据都可以被整合和处理,从而确定与个人情绪状态相关的行为特征。然而,这些设备的制造商对监测数据应用聚合算法,为客户提供一个更友好、更容易解释的版本,但他们通常不提供传感器(加速度计、陀螺仪、温度等)收集的原始数据。目前还没有规范的标准要求制造商向设备所有者提供数据。在大多数情况下,原始数据和聚合算法都像黑盒子一样工作。设备应用程序(通常是应用程序)提供的信息非常相关,用户的解释对他们的行为(行为改变,药物管理等)有直接影响。因此,有必要验证前面过程中使用的算法,以确保集成(和呈现)的信息与传感器收集的信息真正对应。在本文中,我们提出了一个适合于验证个人活动监测传感器汇总数据的系统。该系统包括一个解析算法,该算法生成数据结构并将其与输出关联起来。该算法的有效性已经用两年的真实数据进行了测试,包括白天活动和睡眠质量监测。该算法具有完美的可扩展性,可以在任何设备上使用,因此所提出的计算机系统可以用于将来对此类过程的计算机审计。
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Verification of the integration process of algorithms and sensor data for mental health applications
Mood disorders are becoming more frequent and, especially after the pandemic years, the importance of analysing and preventing such disorders has become clear. In the worst cases, people can suffer from depression or bipolar disorder leading to hospitalization or sick leave with serious economic and social consequences for the individual and their environment. Thanks to the development of technology, there are increasingly useful portable devices for monitoring individual daily activity. The data collected is very useful for understanding not only the individual's environment but also for characterizing their emotional profile. However, good monitoring requires the use of a diverse set of information sources. Medical consultations are the traditional source of information but in many cases this information is lacking or insufficient. The new sources of information are diverse: smart devices such as smart watches or even the mobile phone itself, portable sensors of various types and even activity records on social networks. All these data can be integrated and processed in such a way that a characterization profile of behaviour related to the emotional state of the individual is determined. However, the manufacturers of these devices apply aggregation algorithms to the monitored data to provide the client with a friendlier and easier to interpret version, but they do not usually provide the raw data collected by the sensors (accelerometer, gyroscope, temperature, etc.). There is still no regulated standardization that obliges the manufacturer to provide the data to the owners of the devices. Both raw data and aggregation algorithms work like a black box in most cases. The information presented by the device applications (generally apps) is very relevant and the interpretation of the users has direct consequences on their behaviour (behaviour modification, medication administration, etc.). For this reason, it is essential to verify the algorithms used in the previous process, guaranteeing that the information integrated (and presented) really corresponds to the information collected by the sensors. In this paper we present a suitable system for the verification of aggregated data from personal activity monitoring sensors. The system includes a parsing algorithm that makes the data structure and relates it to the output. The effectiveness of the algorithm has been tested with real data over a period of two years and for both daytime activity and sleep quality monitoring. The algorithm is perfectly scalable to be used on any device, so the computer system presented can be useful for future computer auditing of this type of process.
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