Novel Conductive Carbon Black and Polydimethlysiloxane ECG Electrode: A Comparison with Commercial Electrodes in Fresh, Chlorinated, and Salt Water
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In this study, we evaluated the performance of two novel conductive carbon black (CB) and polydimethlysiloxane (PDMS) bio-potential electrodes, with and without an integrated flexible copper mesh, against commercially available electrodes (Polar® textile, Silver-coated textile, and carbon rubber). The electrodes were tested in three types of water (fresh/unfiltered, chlorinated, and salt water). Our testing revealed that our CB/PDMS electrode with integrated copper mesh provided a high-fidelity ECG signal morphologies without any amplitude degradation in all of the types of water tested (N = 10). The non-meshed CB/PDMS electrodes were also subjected to a long-term durability test by the US Navy SCUBA divers during which the electrodes maintained ECG signal quality for a 6 h period of continuous use. The results of a material degradation analysis revealed the CB/PDMS composite material does not exhibit significant changes in physical integrity after prolonged exposure to the test conditions. The newly developed meshed CB/PDMS electrodes have the potential to be used in a wide variety of both dry and wet environments including the challenge of obtaining ECG signals in salt water environments. © 2016, Biomedical Engineering Society.
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Carbon electrodes; Dry electrodes; Reusable electrodes; Salt water; Textile ECG electrodes; Underwater ECG Carbon black; Copper; Durability; Electrocardiography; Mesh generation; Saline water; Textiles; Carbon electrode; Conductive carbon blacks; Dry electrode; ECG electrodes; Long term durability; Material degradation; Polydimethlysiloxane; Water environments; Electrodes; salt water; baysilon; dimeticone; fresh water; soot; adult; animal cell; Article; attenuation; carbon black electrode; chlorination; controlled study; electrical equipment; electrode; environmental factor; exposure; human; human cell; human experiment; hydrophobicity; male; mouse; newborn; nonhuman; normal human; polydimethlysiloxane electrode; priority journal; surface property; tensile strength; animal; cell line; clinical trial; comparative study; devices; electrocardiography; electrode; materials testing; procedures; soot; Adult; Animals; Cell Line; Dimethylpolysiloxanes; Electrocardiography; Electrodes; Fresh Water; Humans; Male; Materials Testing; Mice; Soot
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