Enhancing the electrical properties of inkjet-printed silver ink by electrolyte sintering, photonic sintering, and electroless plating

Conductive inkjet printing is an emerging rapid manufacturing technology in the field of smart clothing and wearable electronics. The current challenge in conductive inkjet printing includes upgrading of electrical performance of printed inks to the equivalent level to traditional conductor...

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Main Authors: Mukai Yusuke, Suh Minyoung
Format: Article
Language:English
Published: International Institute for the Science of Sintering, Beograd 2021-01-01
Series:Science of Sintering
Subjects:
Online Access:http://www.doiserbia.nb.rs/img/doi/0350-820X/2021/0350-820X2101119M.pdf
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spelling doaj-f1ea493112fe4993b36dfc726f391b912021-03-19T14:15:20ZengInternational Institute for the Science of Sintering, BeogradScience of Sintering0350-820X1820-74132021-01-0153111912610.2298/SOS2101119M0350-820X2101119MEnhancing the electrical properties of inkjet-printed silver ink by electrolyte sintering, photonic sintering, and electroless platingMukai Yusuke0Suh Minyoung1Department of Textile and Apparel, Technology and Management, North Carolina State University, USADepartment of Textile and Apparel, Technology and Management, North Carolina State University, USAConductive inkjet printing is an emerging rapid manufacturing technology in the field of smart clothing and wearable electronics. The current challenge in conductive inkjet printing includes upgrading of electrical performance of printed inks to the equivalent level to traditional conductors such as bulk silver and copper, especially for high-performance electronic applications such as flexible antennas and circuits. Post-treatments are commonly employed to enhance the electrical conduction of inkjet-printed tracks. This research discusses the effects of electrolyte sintering, photonic sintering and electroless copper plating on the DC electrical resistance and resistivity of inkjet-printed silver nanoparticles. From experimental results and measurements, it was found that all the post-treatment methods effectively improved the electrical properties of printed silver ink, but in different ways. The lowest resistance of 4.5 Ω (in 0.1 mm × 10 mm) and thickest (4.5 μm) conductor were achieved by electroless copper plating, whereas the lowest resistivity (7.5×10-8 Ω•m) and thinnest (1.0 μm) conductor were obtained by photonic sintering.http://www.doiserbia.nb.rs/img/doi/0350-820X/2021/0350-820X2101119M.pdfconductive inkjet printingsilver nanoparticle inksinteringelectroless platingelectrical properties
collection DOAJ
language English
format Article
sources DOAJ
author Mukai Yusuke
Suh Minyoung
spellingShingle Mukai Yusuke
Suh Minyoung
Enhancing the electrical properties of inkjet-printed silver ink by electrolyte sintering, photonic sintering, and electroless plating
Science of Sintering
conductive inkjet printing
silver nanoparticle ink
sintering
electroless plating
electrical properties
author_facet Mukai Yusuke
Suh Minyoung
author_sort Mukai Yusuke
title Enhancing the electrical properties of inkjet-printed silver ink by electrolyte sintering, photonic sintering, and electroless plating
title_short Enhancing the electrical properties of inkjet-printed silver ink by electrolyte sintering, photonic sintering, and electroless plating
title_full Enhancing the electrical properties of inkjet-printed silver ink by electrolyte sintering, photonic sintering, and electroless plating
title_fullStr Enhancing the electrical properties of inkjet-printed silver ink by electrolyte sintering, photonic sintering, and electroless plating
title_full_unstemmed Enhancing the electrical properties of inkjet-printed silver ink by electrolyte sintering, photonic sintering, and electroless plating
title_sort enhancing the electrical properties of inkjet-printed silver ink by electrolyte sintering, photonic sintering, and electroless plating
publisher International Institute for the Science of Sintering, Beograd
series Science of Sintering
issn 0350-820X
1820-7413
publishDate 2021-01-01
description Conductive inkjet printing is an emerging rapid manufacturing technology in the field of smart clothing and wearable electronics. The current challenge in conductive inkjet printing includes upgrading of electrical performance of printed inks to the equivalent level to traditional conductors such as bulk silver and copper, especially for high-performance electronic applications such as flexible antennas and circuits. Post-treatments are commonly employed to enhance the electrical conduction of inkjet-printed tracks. This research discusses the effects of electrolyte sintering, photonic sintering and electroless copper plating on the DC electrical resistance and resistivity of inkjet-printed silver nanoparticles. From experimental results and measurements, it was found that all the post-treatment methods effectively improved the electrical properties of printed silver ink, but in different ways. The lowest resistance of 4.5 Ω (in 0.1 mm × 10 mm) and thickest (4.5 μm) conductor were achieved by electroless copper plating, whereas the lowest resistivity (7.5×10-8 Ω•m) and thinnest (1.0 μm) conductor were obtained by photonic sintering.
topic conductive inkjet printing
silver nanoparticle ink
sintering
electroless plating
electrical properties
url http://www.doiserbia.nb.rs/img/doi/0350-820X/2021/0350-820X2101119M.pdf
work_keys_str_mv AT mukaiyusuke enhancingtheelectricalpropertiesofinkjetprintedsilverinkbyelectrolytesinteringphotonicsinteringandelectrolessplating
AT suhminyoung enhancingtheelectricalpropertiesofinkjetprintedsilverinkbyelectrolytesinteringphotonicsinteringandelectrolessplating
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