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Passivation capability of carbon black layers for screen-printed battery applications with Ag current collectors
Patrick Rassek,
Erich Steiner,
Timothy Claypole,
Martin Krebs,
Michael Herrenbauer
Applied Physics A, Volume: 126, Issue: 8
Swansea University Author: Timothy Claypole
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DOI (Published version): 10.1007/s00339-020-03785-y
Abstract
Screen-printed thin-film batteries comprise current collectors typically realised with commercially available conductive silver inks primarily designed for non-critical printed electronics applications. The avoidance of electrochemical interaction of metallic silver with the respective battery chemi...
Published in: | Applied Physics A |
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ISSN: | 0947-8396 1432-0630 |
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Springer Science and Business Media LLC
2020
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URI: | https://cronfa.swan.ac.uk/Record/cronfa54692 |
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2020-08-24T12:46:36.9932246 v2 54692 2020-07-13 Passivation capability of carbon black layers for screen-printed battery applications with Ag current collectors 7735385522f1e68a8775b4f709e91d55 Timothy Claypole Timothy Claypole true false 2020-07-13 Screen-printed thin-film batteries comprise current collectors typically realised with commercially available conductive silver inks primarily designed for non-critical printed electronics applications. The avoidance of electrochemical interaction of metallic silver with the respective battery chemistry requires printing of an additional passivation layer. The wide range of printing inks available makes it difficult for researchers to select and qualify battery specific inks that ensure a long-life cycle without limitation of relevant battery performance parameters. This study presents a novel method to quantify the passivation capability of carbon black passivation layers for silver current collectors in 6.0 M potassium hydroxide and 5.8 M zinc chloride aqueous electrolyte solutions. Cyclic voltammetry is used to determine possible electrochemical interaction of passivated current collectors with the electrolyte media which constitute battery performance degrading parasitic side reactions. An innovative approach based on Faraday’s law of electrolysis is presented to transform cyclic voltammogram curve progressions into comparable numerical values. The mathematical approach allows quantitative comparison of individually fabricated passivation layers with respect to their passivation capability instead of interpreting a large number of cyclic voltammograms. Journal Article Applied Physics A 126 8 Springer Science and Business Media LLC 0947-8396 1432-0630 Printed flexible batteries; Current collectors; Corrosion; Electrochemistry; Cyclic voltammetry; Electrochemical passivation 1 8 2020 2020-08-01 10.1007/s00339-020-03785-y COLLEGE NANME COLLEGE CODE Swansea University 2020-08-24T12:46:36.9932246 2020-07-13T09:22:26.8527554 Patrick Rassek 1 Erich Steiner 2 Timothy Claypole 3 Martin Krebs 4 Michael Herrenbauer 5 54692__18028__a3b2b9b5993045f0a423e835b12b9a75.pdf 54692.pdf 2020-08-24T12:44:45.0729271 Output 1089014 application/pdf Accepted Manuscript true 2021-07-06T00:00:00.0000000 true English |
title |
Passivation capability of carbon black layers for screen-printed battery applications with Ag current collectors |
spellingShingle |
Passivation capability of carbon black layers for screen-printed battery applications with Ag current collectors Timothy Claypole |
title_short |
Passivation capability of carbon black layers for screen-printed battery applications with Ag current collectors |
title_full |
Passivation capability of carbon black layers for screen-printed battery applications with Ag current collectors |
title_fullStr |
Passivation capability of carbon black layers for screen-printed battery applications with Ag current collectors |
title_full_unstemmed |
Passivation capability of carbon black layers for screen-printed battery applications with Ag current collectors |
title_sort |
Passivation capability of carbon black layers for screen-printed battery applications with Ag current collectors |
author_id_str_mv |
7735385522f1e68a8775b4f709e91d55 |
author_id_fullname_str_mv |
7735385522f1e68a8775b4f709e91d55_***_Timothy Claypole |
author |
Timothy Claypole |
author2 |
Patrick Rassek Erich Steiner Timothy Claypole Martin Krebs Michael Herrenbauer |
format |
Journal article |
container_title |
Applied Physics A |
container_volume |
126 |
container_issue |
8 |
publishDate |
2020 |
institution |
Swansea University |
issn |
0947-8396 1432-0630 |
doi_str_mv |
10.1007/s00339-020-03785-y |
publisher |
Springer Science and Business Media LLC |
document_store_str |
1 |
active_str |
0 |
description |
Screen-printed thin-film batteries comprise current collectors typically realised with commercially available conductive silver inks primarily designed for non-critical printed electronics applications. The avoidance of electrochemical interaction of metallic silver with the respective battery chemistry requires printing of an additional passivation layer. The wide range of printing inks available makes it difficult for researchers to select and qualify battery specific inks that ensure a long-life cycle without limitation of relevant battery performance parameters. This study presents a novel method to quantify the passivation capability of carbon black passivation layers for silver current collectors in 6.0 M potassium hydroxide and 5.8 M zinc chloride aqueous electrolyte solutions. Cyclic voltammetry is used to determine possible electrochemical interaction of passivated current collectors with the electrolyte media which constitute battery performance degrading parasitic side reactions. An innovative approach based on Faraday’s law of electrolysis is presented to transform cyclic voltammogram curve progressions into comparable numerical values. The mathematical approach allows quantitative comparison of individually fabricated passivation layers with respect to their passivation capability instead of interpreting a large number of cyclic voltammograms. |
published_date |
2020-08-01T09:34:23Z |
_version_ |
1824477847031382016 |
score |
11.0535 |