Development of Mobile Apps for Wireless Sensor Data Acquisition and Visualization of Biopotentials

Christopher Aguilar, M. Ghamari, H. Nazeran
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引用次数: 2

Abstract

Pervasive health biomedical devices are presently trending towards supplementary usage with smart phones, tablets and wearable gadgets to complement their ubiquitous roles in monitoring and diagnostic applications. In this paper, detailed design and development of a user-friendly mobile app using MIT App Inventor 2 software is explained, where emphasis is placed on building a graphical user interface (GUI) to provide the stage for real-time data acquisition and quality visualization (plotting) of photoplethysmography (PPG) data and their spectra on a smart device. Brief review of wireless networking and serial communications is also presented. PPG is modeled in a laboratory environment, where blood volume measurement is obtained via light absorption and reflectance through arterial pulse in the finger by an infrared LED source and optical sensor. A low-power microcontroller is implemented to control and digitize the analog PPG signal, characterized by a pulse oximeter waveform. Investigation of how this valuable biopotential data can be wirelessly transferred from the PPG device via a Bluetooth or WiFi module to a beaconing smart device is pursued. Following a research-driven approach and systematic process, the PPG raw data is amplified and filtered, transmitted and collected wirelessly, then further analyzed to derive the Heart Rate Variability (HRV) signal. Utilizing an advanced tool for studying the variability of heart beat intervals, namely Kubios software, the HRV data was validated for its accuracy in its computation and generation of quantitative markers indicative of the autonomic nervous system's (ANS) influence on the cardiovascular system, particularly the stress response.
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开发用于无线传感器数据采集和生物电位可视化的移动应用
普及的健康生物医学设备目前正趋向于与智能手机、平板电脑和可穿戴设备相辅相成,以补充其在监测和诊断应用中无处不在的作用。本文详细介绍了使用MIT app Inventor 2软件的用户友好移动应用程序的设计和开发,其中重点放在构建图形用户界面(GUI)上,为智能设备上的光电体积脉搏波(PPG)数据及其光谱的实时数据采集和质量可视化(绘图)提供舞台。简要回顾了无线网络和串行通信。PPG在实验室环境中建模,其中血量测量是通过红外LED光源和光学传感器通过手指动脉脉冲的光吸收和反射获得的。采用低功耗微控制器对模拟PPG信号进行控制和数字化,其特征是脉搏血氧仪波形。研究人员正在研究如何通过蓝牙或WiFi模块将这些有价值的生物电位数据从PPG设备无线传输到信标智能设备。根据研究驱动的方法和系统流程,PPG原始数据被放大、过滤、无线传输和收集,然后进一步分析得出心率变异性(HRV)信号。利用研究心跳间隔变异性的先进工具Kubios软件,验证了HRV数据在计算和生成指示自主神经系统(ANS)对心血管系统影响的定量标记方面的准确性,特别是应激反应。
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