Development of a Patient Monitoring System for Hospital Wards Employing Zigbee Technology and CAN Protocol

Ladlennon C. Banuag, Joseph Karl G. Salva
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引用次数: 2

Abstract

Patient monitoring is the most important routine in hospitals. Patient Monitoring System (PMS) provides continuous presentation and interpretation of the patient’s vital signs. However in a hospital wards scenario, standard patient monitoring requires a nurse to manually and periodically record the patient’s vital signs. This paper presents the development of an automated PMS for hospital wards that integrates Zigbee Technology and CAN protocol. The system comprises two sections: the wireless section is the wearable device and the coordinator node while the wired section is the coordinator node connected to the base station node thru the CAN bus and a Central Monitoring Station (CMS) based on LabVIEW software. The key components of the wearable device are the GY-MAX30100 and Fever Click MAX30205. These development boards have achieved the acceptable limits in measuring vital signs such as heart rate (HR), oxygen saturation (SpO2) and body temperature in terms of relative error rate (RER) when compared to Pulse Oximeter MD300C1 and Digital Thermometer DT-111A that are both CE marked medical device. The evaluation of the wearable device and the coordinator node in sending and receiving vital signs data have shown a 100% reliability even in a line-of-sight (LOS) and non-line-of-sight (NLOS) condition for a distance of up to 40 meters. The average response time of the CMS in receiving data is 1.3 seconds and has detection for abnormal vital signs. The final simulation tested with four volunteers had successfully revealed an effective and a working system that can work in a multi-patient architecture.
采用Zigbee技术和CAN协议的医院病房病人监护系统的开发
病人监护是医院最重要的日常工作。患者监测系统(PMS)提供患者生命体征的连续呈现和解释。然而,在医院病房场景中,标准的患者监测需要护士手动定期记录患者的生命体征。本文介绍了一种集成Zigbee技术和CAN协议的医院病房自动化PMS系统的开发。该系统包括两部分:无线部分为可穿戴设备和协调节点,有线部分为协调节点,协调节点通过CAN总线和基于LabVIEW软件的中央监测站(CMS)与基站节点相连。该可穿戴设备的关键部件是GY-MAX30100和Fever Click MAX30205。与具有CE标志的医疗设备脉搏血氧仪MD300C1和数字温度计DT-111A相比,这些开发板在测量心率(HR)、血氧饱和度(SpO2)和相对错误率(RER)方面达到了可接受的极限。对可穿戴设备和协调节点在发送和接收生命体征数据方面的评估表明,即使在40米距离内的视线(LOS)和非视线(NLOS)条件下,也具有100%的可靠性。CMS接收数据的平均响应时间为1.3秒,具有异常生命体征检测功能。在四名志愿者的最后模拟测试中,成功地揭示了一个有效的、可在多病人体系结构中工作的系统。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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