Performance ANd ACcuracy in Electrical BioActivity Recordings (PANACEA): a high-performance, wireless, multi-instrument for potentiometric and amperometric recording of biosignals
File(s)Manuscript_PANACEA.pdf (7.7 MB)
Accepted version
Author(s)
Zafeiropoulos, Georgios C
Papadimitriou, Konstantinos
Drakakis, Emmanuel M
Type
Journal Article
Abstract
This paper presents the design, testing and quantitative evaluation of a high-performance, low-power, portable multi-instrument (
), capable of recording important biosignals accurately and in real-time. This highly versatile system has the ability to transmit the captured bio-data back to the user either in a wired (HDMI cable) or wireless (ZigBee protocol) manner, depending on the targeted application. The biological information that can be recorded by the proposed instrument spans a wide range of bio-potentials and bio-amperometric signals. The proposed instrument is split into two complementary “sub-instruments”, where one is operating as the front-end device, responsible for the accurate, low-noise signal detection and transmission, while the second “sub-instrument” is operating as the “base station”, responsible for the collection and further processing of the captured data. For wired transmission (e.g to the user’s PC) the front end module can operate independently, however, for wireless transmission both “sub-instruments” are required (transmitter-base station architecture). For wireless transmission, each of the two “sub-instruments” is equipped with dedicated 2 Mbps ZigBee radio transceivers and both parts are controlled by a small area embedded FPGA module. The front-end device features two distinct sections: (a) a current/voltage to voltage section comprising six potentiometry and two transimpedance amplifier-based amperometry channels. These eight in total analogue channels are converted into digital form by means of a 24 bit, voltage input, Analogue-to-Digital Converter (ADC) and (b) a four channel, commercially available switched-capacitor-based ADC Integrated Circuit (IC), which converts input charge to digital data with 16 or 20 bit resolution at 3.125 kSPS. The paper presents a plethora of measured wired and wireless experimental results, corresponding to most well-known biomedical and other biological/physical signals including: EEG, ECoG, EMG, ECG, PPG, intracardiac atrial fibrillation (AF) signals, cell media/tissue biopotential, drosophila H1-cell spiking signals and pH sensing using commercially available electrodes. The portable/wearable poly-instrument is suitable for Intensive Care Unit (ICU), High Dependancy Unit (HDU) as well as home monitoring.
), capable of recording important biosignals accurately and in real-time. This highly versatile system has the ability to transmit the captured bio-data back to the user either in a wired (HDMI cable) or wireless (ZigBee protocol) manner, depending on the targeted application. The biological information that can be recorded by the proposed instrument spans a wide range of bio-potentials and bio-amperometric signals. The proposed instrument is split into two complementary “sub-instruments”, where one is operating as the front-end device, responsible for the accurate, low-noise signal detection and transmission, while the second “sub-instrument” is operating as the “base station”, responsible for the collection and further processing of the captured data. For wired transmission (e.g to the user’s PC) the front end module can operate independently, however, for wireless transmission both “sub-instruments” are required (transmitter-base station architecture). For wireless transmission, each of the two “sub-instruments” is equipped with dedicated 2 Mbps ZigBee radio transceivers and both parts are controlled by a small area embedded FPGA module. The front-end device features two distinct sections: (a) a current/voltage to voltage section comprising six potentiometry and two transimpedance amplifier-based amperometry channels. These eight in total analogue channels are converted into digital form by means of a 24 bit, voltage input, Analogue-to-Digital Converter (ADC) and (b) a four channel, commercially available switched-capacitor-based ADC Integrated Circuit (IC), which converts input charge to digital data with 16 or 20 bit resolution at 3.125 kSPS. The paper presents a plethora of measured wired and wireless experimental results, corresponding to most well-known biomedical and other biological/physical signals including: EEG, ECoG, EMG, ECG, PPG, intracardiac atrial fibrillation (AF) signals, cell media/tissue biopotential, drosophila H1-cell spiking signals and pH sensing using commercially available electrodes. The portable/wearable poly-instrument is suitable for Intensive Care Unit (ICU), High Dependancy Unit (HDU) as well as home monitoring.
Date Issued
2018-12-01
Date Acceptance
2018-05-30
Citation
Measurement, 2018, 129, pp.128-141
ISSN
0263-2241
Publisher
Elsevier
Start Page
128
End Page
141
Journal / Book Title
Measurement
Volume
129
Copyright Statement
© 2018 Published by Elsevier Ltd. This manuscript is licensed under the Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International Licence http://creativecommons.org/licenses/by-nc-nd/4.0/
Identifier
http://gateway.webofknowledge.com/gateway/Gateway.cgi?GWVersion=2&SrcApp=PARTNER_APP&SrcAuth=LinksAMR&KeyUT=WOS:000443834700013&DestLinkType=FullRecord&DestApp=ALL_WOS&UsrCustomerID=1ba7043ffcc86c417c072aa74d649202
Subjects
Science & Technology
Technology
Engineering, Multidisciplinary
Instruments & Instrumentation
Engineering
High-performance
Wireless
Biosignal
Potentiometry
Amperometry
EEG
ECoG
ECG
EMG
ZigBee Protocol
INJURED HUMAN BRAIN
CONTINUOUS ONLINE MICRODIALYSIS
SPREADING DEPOLARIZATION
SYSTEM
Publication Status
Published
Date Publish Online
2018-06-02