Physical Artificial Arterial Pulse System for Development and Testing of PPG-Based Sensors.

Jordan F Hill, Josephine A Dixon, J Geoffrey Chase, Christopher G Pretty
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Abstract

A physical system to generate a PPG-mimicking signal was designed and validated using everyday low-cost components to aid in medical sensor design. The pulse waveform was created by driving a working fluid into a silicone tube and changing the pressure within it. The corresponding waveform mimics a PPG signal through an artery, is adaptable, and repeatable. The working fluid is interchangeable allowing for change of blood analyte concentrations for development and testing of PPG-based sensors. The system was validated by black ink water compared to water and air compared to water testing to confirm optical transparency of the tube. The produced PPG signal, pulse rate and pressure change were compared to that seen in subjects. Optical transparency for 660 nm - 1550 nm wavelengths of light was validated with the signal, pulse rate and total compliance matching subject data. Thus, the system can mimic arterial pulses, creating a valid PPG signal that can be detected by PPG-based sensors.Clinical Relevance- Provides a low-cost, adaptable, physical PPG signal generator for research and development of optical medical sensor technologies.

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用于开发和测试基于 PPG 传感器的物理人工动脉脉搏系统。
我们设计并验证了一个物理系统,该系统利用日常使用的低成本元件生成 PPG 模拟信号,以帮助医疗传感器的设计。脉冲波形是通过将工作流体注入硅胶管并改变管内压力产生的。相应的波形模拟通过动脉的 PPG 信号,具有适应性和可重复性。工作液可以互换,从而可以改变血液分析物的浓度,用于开发和测试基于 PPG 的传感器。该系统通过黑墨水与水的对比和空气与水的对比测试进行验证,以确认管道的光学透明度。产生的 PPG 信号、脉搏率和压力变化与受试者的情况进行了比较。660 纳米至 1550 纳米波长光的光学透明度得到验证,信号、脉搏率和总顺应性与受试者数据相符。因此,该系统可以模拟动脉搏动,产生有效的 PPG 信号,可被基于 PPG 的传感器检测到。
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