Non-contact measurement of respiratory and heart rates using a CMOS camera-equipped infrared camera for prompt infection screening at airport quarantine stations

Yosuke Nakayama, G. Sun, Shigeto Abe, T. Matsui
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引用次数: 31

Abstract

Severe acute respiratory syndrome (SARS) was first reported in 2003 and quickly spread around the world. Therefore, many international airport quarantine stations launched fever-based screening to detect infected passengers using infrared (IR) cameras for preventing global pandemics. However, a screening method based on fever alone can be insufficient for detecting infected individuals because many factors, such as antipyretics uptake, can affect it. Our previous studies using compact radar revealed that simultaneous measurement of facial skin temperature and respiratory and heart rates drastically improved the sensitivity of infection screening compared to that achieved by facial skin temperature measurement alone. Using a CMOS camera-equipped IR camera (CMOS-IR camera), which most Japanese International Airports have adopted, we developed an enhanced thermal/RGB image processing method for non-contact measurement of facial skin temperature, and respiratory and heart rates. We conducted the image processing on the thermal/RGB image-fusion mode in real time; we determined the respiratory rate by thermal images of the IR camera and the heart rate by the RGB images of the CMOS camera. Using a CMOS-IR camera, we measured respiratory and heart rates of ten healthy subjects (23 ± 1 years), and compared them with those determined by a contact-type respiratory effort belt and electrocardiograms (ECGs) as references. The respiratory and heart rates obtained from the CMOS-IR camera exhibited strong positive correlations with those derived from the references, a respiratory effort belt: r = 0.99, p <; 0.01; ECG: r = 0.96, p <; 0.01, whereas the axillary temperature indicated a moderate degree of correlation to facial skin temperature (r = 0.6). Adopting this method into conventional CMOS-IR camera image processing at international airport quarantines will achieve higher infection screening sensitivity.
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使用配备CMOS摄像机的红外摄像机非接触测量呼吸和心率,以便在机场检疫站及时进行感染筛查
严重急性呼吸系统综合症(SARS)于2003年首次报告,并迅速在全球蔓延。因此,很多国际机场检疫站为了防止全球性流行病,开始了利用红外摄像机(IR)检测感染旅客的发热检查。然而,仅基于发烧的筛查方法可能不足以检测受感染的个体,因为许多因素,如退烧药的摄取,可以影响它。我们之前使用紧凑型雷达的研究表明,与单独测量面部皮肤温度相比,同时测量面部皮肤温度、呼吸和心率大大提高了感染筛查的敏感性。利用大多数日本国际机场采用的配备CMOS相机的红外相机(CMOS-IR相机),我们开发了一种增强的热/RGB图像处理方法,用于非接触式测量面部皮肤温度、呼吸和心率。采用热/RGB图像融合模式对图像进行实时处理;通过红外相机的热成像和CMOS相机的RGB图像分别测定呼吸速率和心率。我们使用CMOS-IR相机测量了10名健康受试者(23±1岁)的呼吸和心率,并将其与接触式呼吸努力带和心电图(ECGs)作为参考进行了比较。CMOS-IR相机得到的呼吸速率和心率与参考文献得到的呼吸努力带呈强正相关:r = 0.99, p <;0.01;心电图:r = 0.96, p <;腋窝温度与面部皮肤温度有中等程度的相关性(r = 0.6)。将该方法应用于国际机场检疫的传统CMOS-IR相机图像处理中,可获得更高的感染筛查灵敏度。
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