Cited 13 time in webofscience Cited 20 time in scopus

Miniaturized Battery-Free Wireless Systems for Wearable Pulse Oximetry

Title
Miniaturized Battery-Free Wireless Systems for Wearable Pulse Oximetry
Authors
Kim, JeonghyunGutruf, PhilippChiarelli, Antonio M.Heo, Seung YunCho, KyoungyeonXie, ZhaoqianBanks, AnthonyHan, SeungyoungJang, Kyung-InLee, Jung WooLee, Kyu-TaeFeng, XueHuang, YonggangFabiani, MonicaGratton, GabrielePaik, UngyuRogers, John A.
DGIST Authors
Jang, Kyung-In
Issue Date
2017-01
Citation
Advanced Functional Materials, 27(1)
Type
Article
Article Type
Article
Keywords
Bio-Compatible SystemsBiocompatibilityData AcquisitionElectric BatteriesFlexible ElectronicsHeartHeart Rate VariabilityInterfaces (Materials)Measurement AccuracyNear Field CommunicationNFCNon-Invasive Medical ProceduresOximetersOximetryPhotonicsQuantitative ComparisonQuantitative InformationRadioRadio Frequency CharacteristicsReflectance Pulse OximetryWearable TechnologyWireless
ISSN
1616-301X
Abstract
Development of unconventional technologies for wireless collection and analysis of quantitative, clinically relevant information on physiological status is of growing interest. Soft, biocompatible systems are widely regarded as important because they facilitate mounting on external (e.g., skin) and internal (e.g., heart and brain) surfaces of the body. Ultraminiaturized, lightweight, and battery-free devices have the potential to establish complementary options in biointegration, where chronic interfaces (i.e., months) are possible on hard surfaces such as the fingernails and the teeth, with negligible risk for irritation or discomfort. Here, the authors report materials and device concepts for flexible platforms that incorporate advanced optoelectronic functionality for applications in wireless capture and transmission of photoplethysmograms, including quantitative information on blood oxygenation, heart rate, and heart rate variability. Specifically, reflectance pulse oximetry in conjunction with near-field communication capabilities enables operation in thin, miniaturized flexible devices. Studies of the material aspects associated with the body interface, together with investigations of the radio frequency characteristics, the optoelectronic data acquisition approaches, and the analysis methods capture all of the relevant engineering considerations. Demonstrations of operation on various locations of the body and quantitative comparisons to clinical gold standards establish the versatility and the measurement accuracy of these systems, respectively. © 2016 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim
URI
http://hdl.handle.net/20.500.11750/5024
DOI
10.1002/adfm.201604373
Publisher
Wiley-VCH Verlag
Related Researcher
  • Author Jang, Kyung In Bio-embedded Electronics Lab
  • Research Interests Extreme mechanics; Stand-alone electronics; Heterogeneous materials; Biocompatible interfaces
Files:
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Collection:
Department of Robotics EngineeringBio-embedded Electronics Lab1. Journal Articles


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