光容积脉搏波分析及其应用综述(预印本)

Hangsik Shin, Junyoung Park, Hyeon Seok Seok, Sang-Soo Kim
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引用次数: 1

摘要

非结构光体积描记图是一种生物信号,具有提供各种血液动力学信息的高可能性。其测量原理简单易行。随着无线通信技术的发展,光体积描记图越来越多地用于测量个人在日常生活中的生理状态,而不仅仅是用于临床环境。一个例子是,智能手表和智能手机等可穿戴设备越来越多地提供基于光电体积描记图测量的医疗保健服务。尽管光体积描记图的传播和使用有所增加,但无法具体说明光体积描图的处理方法。这种方法被认为是金标准,包括其预处理方法。个别研究人员正在以各种方式对其进行研究。与其他专注于光体积描记图的测量原理和临床应用的综述不同,这篇综述考察了光体积描图的生成机制、测量原理、临床应用、噪声定义、预处理技术、特征检测技术和后处理技术等方面的现有研究案例,尤其是从工程的角度来看。此外,这篇综述描述了当前用于光体积描记图的信号处理技术的流程,并提出了光体积描图处理研究的未来方向。特别是,这篇综述从技术角度研究了使用峰值检测技术和信号质量评估技术的光电体积描记图降噪技术,这些技术是光电体积描图实际使用的重要元素。
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Photoplethysmogram analysis and applications: An Integrative Review (Preprint)
UNSTRUCTURED Photoplethysmogram is a biological signal with a high possibility of providing various hemodynamic information. Its measurement principle is simple and easy to implement. With the development of wireless communication technology, photoplethysmogram is increasingly used for the purpose of measuring the physiological state of an individual in a daily life beyond its use in a clinical environment. An example of this is that wearable devices such as smart watches and smartphones are increasingly providing healthcare services based on photoplethysmogram measurement. Despite increased spread and use of photoplethysmogram, it is not possible to specify the processing method of photoplethysmogram. Such method is considered a gold standard, including its pre-processing method. It is being studied in various ways by individual researchers. Unlike other reviews focusing on the measurement principle and clinical application of photoplethysmogram, this review examines existing research cases on photoplethysmogram about its generation mechanisms, measurement principles, clinical applications, noise definition, pre-processing techniques, feature detection techniques, and post-processing techniques for photoplethysmogram processing, especially from an engineering point of view. Furthermore, this review describes the flow of current signal processing techniques for photoplethysmogram and suggests future directions that photoplethysmogram processing research will be directed. In particular, this review looks at photoplethysmogram noise reduction technology using peak detection technology and signal quality assessment technology known to be important elements for the practical use of photoplethysmogram from a technical perspective.
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