Abstract

BackgroundECG (Electrocardiogram) measurements in home health care demands new sensor solutions. In this study, six different configurations of screen printed conductive ink electrodes have been evaluated with respect to electrode potential variations and electrode impedance.MethodsThe electrode surfaces consisted of a Ag/AgCl-based ink with a conduction line of carbon or Ag-based ink underneath. On top, a lacquer layer was used to define the electrode area and to cover the conduction lines. Measurements were performed under well-defined electro-chemical conditions in a physiologic saline solution.ResultsThe results showed that all printed electrodes were stable and have a very small potential drift (less than 3 mV/30 min). The contribution to the total impedance was 2% of the set maximal allowed impedance (maximally 1 kΩ at 50 Hz), assuming common values of input impedance and common mode rejection ratio of a regular amplifier.ConclusionOur conclusions are that the tested electrodes show satisfying properties to be used as elements in a skin electrode design that could be suitable for further investigations by applying the electrodes on the skin.

Highlights

  • ECG (Electrocardiogram) measurements in home health care demands new sensor solutions

  • Screen printed electrodes The electrodes were screen printed on a Polyethylene terephthalate (PET) foil substrate (Polyfoil Bias, 125 Mic)

  • The mean potential drift is in the range of 0.03 mV/min (AAg) to 0.08 mV/min (BC)

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Summary

Introduction

ECG (Electrocardiogram) measurements in home health care demands new sensor solutions. The electrocardiogram (ECG) is an important diagnostic and monitoring modality in point of care systems. This requires a robust wearable ECG acquisition system and smartware has in this context been introduced as a possible solution [1]. Printed electronics technology has emerged as a new attractive tool in producing smartware [7,8]. This technology has the potential to provide smartware electrodes with improved characteristics

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