非接触式呼吸监测仪初步数据和结果

Bryce E. Hill, R. Stapley, Md Siddat Bin Nesar, Bradley M. Whitaker
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引用次数: 4

摘要

在微重力环境下,呼吸频率和潮汐量是宇航员的重要测量指标。目前的技术,如呼吸感应容积脉搏波(RIP)、血管造影、肺活量测定和脉搏血氧测定,除了不能直接测量呼吸外,还存在数据滞后、数值漂移和/或对患者和卫生保健工作者的侵入程度。为了克服这些问题,我们开发了一种非接触式呼吸监测仪,可以测量腹部和胸部的位移以及呼吸流量的变化。该系统包含一个远程热传感器,用于测量受试者佩戴的面具的温度变化,以及一个激光雷达系统,用于测量胸部和腹部的运动。初步数据是在IRB批准的研究中收集的,涉及三名受试者。收集的数据包括RIP、血糖测定、肺活量测定和脉搏血氧测定作为比较标准。当受试者躺在床上休息时,一个激光雷达球对准受试者的胸部和腹部,一个热传感器对准受试者的面部区域。执行数据的直接比较。初始数据显示RIP与LiDAR平均测潮量以及从肺活量计到LiDAR计算潮量的潮汐量具有高度相关。热传感器呼吸数据与温度计数据具有较高的相关性。为了使激光雷达系统适应在微重力状态下休息的宇航员,以获得类似的结果,我们需要使用多个激光雷达球同时测量胸部和腹部的前后。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Touchless Respiratory Monitor Preliminary Data and Results
Respiratory rates and tidal volumes in a microgravity environment are crucial measurements for astronauts. Current technology such as respiratory inductance plethysmography (RIP), capnography, spirometry and pulse-oximetry, besides not directly measuring respiration, also suffer from lagging data, drifting values and/or degrees of invasiveness to the patient and health care workers. To overcome these issues, we developed a touchless respiratory monitor that both measures abdominal and chest excursions and changes to respiratory flow. This system incorporates a remote thermal sensor measuring temperature changes of a mask worn by the subject and a LiDAR system measuring the chest and abdomen movements. Initial data was collected on three subjects in an IRB approved study. The data collected includes RIP, Capnometry, Spirometry and Pulse-oximetry as the standards for comparison. A LiDAR puck was aimed at the chest and abdomen of the subject and a thermal sensor at the facial region of the subject while they lay resting in a bed. Direct comparison of the data is performed. Initial data shows high correlation between the RIP and average LiDAR measured tidal volume as well as the tidal volume from spirometer to the LiDAR calculated tidal volume. Thermal sensor respiratory data shows high correlation with the capnometer data. In order to adapt the LiDAR system for a resting astronaut in microgravity to obtain similar results, we would require the use of multiple LiDAR pucks to simultaneously measure both the anterior and posterior of the chest and abdomen.
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