A smart face mask based on photoplethysmography for cardiorespiratory monitoring in occupational settings

Riccardo Sabbadini, J. D. Tocco, C. Massaroni, E. Schena, M. Carassiti
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引用次数: 4

Abstract

In recent years, the market dedicated to wearable devices has undergone a strong expansion due to the increasingly development of innovative and personalized technologies for monitoring vital parameters. The COVID-19 pandemic has led the change in daily habits through the introduction of personal protective equipment (e.g., face mask) into everyday routine. The use of an instrumented face mask to monitor heart rate (HR) and respiratory rate (RR) of workers in occupational settings may be useful to better understand the physiological conditions and the presence of environmental and physical stressors.Among many methods used to estimate these two vital signs, photoplethysmography has gained broad acceptance in the scientific community. Several sites have been used to place the photoplethysmographic sensor (e.g., ear lobe and finger-tip) to estimate the above-mentioned physiological parameters. In this paper, we proposed a smart face mask (SFM) instrumented by a photoplethysmographic sensor. This configuration is particularly adequate to be used in those occupational settings which require the use of common input peripherals (e.g., mouse and keyboard) which prompt to fast movement of hands and fingers, limiting the performance of common measurement systems (e.g., smartwatches) due to motion artifacts. The proof of concept of SFM has been conducted by mimicking conditions close to the mentioned occupational settings through the use of a low computational power algorithm. The proposed system showed promising results by returning values in agreement with the reference system mimicking RR in a wide range of values.
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一种基于光电容积脉搏图的智能面罩,用于职业环境下的心肺监测
近年来,由于创新和个性化的关键参数监测技术的不断发展,可穿戴设备市场经历了强劲的扩张。COVID-19大流行通过将个人防护装备(如口罩)纳入日常生活,导致了日常习惯的改变。使用仪器面罩监测职业环境中工人的心率(HR)和呼吸频率(RR)可能有助于更好地了解生理状况以及环境和物理压力源的存在。在许多用来估计这两个生命体征的方法中,光容积脉搏波描记术已经在科学界得到了广泛的接受。已经使用了几个位置放置光体积脉搏传感器(如耳垂和指尖)来估计上述生理参数。在本文中,我们提出了一种智能面罩(SFM)仪器的光电容积脉搏波传感器。这种配置特别适合用于那些需要使用通用输入外设(例如,鼠标和键盘)的职业设置,这些设置提示手和手指的快速运动,由于运动伪影限制了通用测量系统(例如,智能手表)的性能。通过使用低计算能力算法模拟接近上述职业设置的条件,对SFM的概念进行了证明。该系统返回的值与参考系统在很大范围内模拟RR的值一致,显示出令人满意的结果。
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