New Generation of Opto-Electronic Patch Sensor to enable effective human vital signs monitoring for healthcare, personal health monitoring during phys

概述概念性CareLight传感器技术已经证明其在生理监测方面具有更好的性能（http：//atlasofscience.org/tag/carelight），在现有智能设备上具有多路复用功能，以满足快速增长的移动的医疗保健和个人健康监测需求。该项目将利用LU专利传感器技术（GB专利：2524919）创建一个具有异质工程架构的连续人体生命体征监测原型，并根据临床医生，个人甚至运动员的要求进行生理监测，将通过黄金标准测试程序进行验证。该项目中创建的新一代节能光电贴片传感器（POPS）原型将提供可靠的信号，这些信号具有抗运动性，并且不易于与现有智能设备发生故障，用于实时人体生命体征监测一段时间（>24小时）。当与人体工程学设计和节能工程架构相结合时，POPS将完全符合临床监管的监护设备和数据管理系统，在科学和技术方面的卓越性POPS将是光生理相互作用的坚实基础研究的成果之一（NASA/TM-2011-216145）与现有的基于朗伯-比尔定律和运动伪影的光电体积描记术（PPG）进行比较。LU基于光生理建模的生理监测工作在2008年被德雷克塞尔大学（www.pages.drexel.edu/currentresearch.html）认为是全球脉搏血氧饱和度研究的前沿。与节能架构（http：//pubs.rsc.org/en/content/articlelanding/2013/CP/C3CP52036F#！将进行基础研究，为可行的创新产品提供最佳解决方案，传感器将集成到可穿戴产品中，并在以用户为中心的设计环境中探索电源，柔性电子，材料和制造工艺。POPS将具有集成化、系统集成和超轻的特点，具有可靠和更好的性能，为关键标志监测提供一站式解决方案。开发的POPS原型将使用标准化的生理测试程序进行测试，以证明其可靠性和对运动伪影的抵抗力。POPS原型为临床医生和科学家提供了获得体内生理过程更深入知识的能力，因为其设计使其易于长时间连续收集数据，因为其重量超轻，舒适，目标该项目将把使能光电传感技术整合到电力系统中，节省了用户原型的架构设计，可用于医疗保健和运动生理监测应用。该项目的目标将创建其独特的特点，即将推出的POPS如下：1）运动阻力生理监测与光生理相互作用的声音的基础。2)3）将进行生理测试，不仅验证功耗方面的异质设计，而且通过持续、长时间的高强度体力活动，进一步了解休息时和体力活动期间体内的生理过程，4）跨光子学、设计、医疗保健和运动监测应用的多学科研究，以引领现场/现场运动生理监测甚至实时评估的新研究范式。

OverviewThe conceptual CareLight sensor technology has already demonstrated its better performance of physiological monitoring (http://atlasofscience.org/tag/carelight) with multiplexed functionalities over available smart devices to fulfil a fast growing demand of mobile healthcare and personal health monitoring at rest and during physical activity. The project will utilise LU patented sensor technology (GB patent: 2524919) to create a continuous human vital signs monitoring prototype with a heterogonous engineering architecture and it's use for physiological monitoring as requested by clinicians, individuals and even sportsmen/women, will be validated through gold standard testing procedures. The new generation of power-saving opto-electronic patch sensor (POPS) prototype created in this project will provide reliable signals that are motion resistant and not prone to failure with existing smart devices for a period (>24 hours) of real-time human vital signs monitoring. The POPS when combined with an ergonomic design and a power-saving engineering architecture will be fully compliance with clinical regulated monitoring devices and data management systems, and will be perfectly suited to medical and sporting monitoring environments.Excellence in Science and TechnologyThe POPS will be one of the outcomes derived from solid fundamental research of opto-physiological interaction (NASA/TM-2011-216145) against existing lambert-Beer law based and motion artefact photoplethysmography (PPG). LU opto-physiological modelling based physiological monitoring work was recognised as being at the forefront of worldwide pulse oximetry research by Drexel University in 2008 (www.pages.drexel.edu/~kmg462/currentresearch.html). Together with power-saving architecture (http://pubs.rsc.org/en/content/articlelanding/2013/CP/C3CP52036F#!divAbstract), fundamental research will be undertaken to provide optimal solutions toward viable innovative products, The sensor will be integrated into wearable products with power sources, flexible electronics, materials and manufacturing processes explored in a user-centred design context. The POPS will possess miniaturised, system integrated and ultra-light weight features with a reliable and better performance to deliver one-stop solutions in critical signs monitoring. The developed POPS prototype will be tested using standardised physiological testing procedures in order to demonstrate its reliability and resistance to motion artefact. The POPS prototype offers both clinicians and scientists the ability to gain more in-depth knowledge of physiological processes within the body as its design makes it easy to collect data continuously over long periods of time as it is ultra-light weight, comfortable, unobtrusive and does not impede or restrict movement.ObjectivesThe project will consolidate the enabling optoelectronic sensing tech into power-saving architecture design of user prototype leading to healthcare and sport physiological monitoring application. The objectives of the project will be created with its unique characteristics of forthcoming POPS as follows:1) Motion resistance physiological monitoring with a sound fundamental of opto-physiological interaction. 2) Heterogeneous design to provide enhanced functionalities of POPS and a better performance during the measurements inside and outdoor.3) Physiological testing will be undertaken not only to validate heterogonous design in power consumption but also to gain further insight into physiological processes within the body both at rest and during intensive physical activity through continuous, long duration, minimally intrusive measurement.4) Multidisciplinary research across photonics, design, healthcare and sport monitoring application to lead a new research paradigm of site/field sport physiologic monitoring even assessment in a real-time.