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Dewetting-driven self-assembly of web-like silver nanowire networked film for highly transparent conductors

Authors
Kim, JinLee, Sung MinYou, Jin SeonKim, Na YeonWooh, SanghyukChang, Suk Tai
Issue Date
Mar-2022
Publisher
Korean Society of Industrial Engineering Chemistry
Keywords
Dewetting-driven self-assembly; Metal mesh; Silver nanowires; Solution process; Transparent electrode; Web-like networked film
Citation
Journal of Industrial and Engineering Chemistry, v.107, pp 410 - 417
Pages
8
Journal Title
Journal of Industrial and Engineering Chemistry
Volume
107
Start Page
410
End Page
417
URI
https://scholarworks.bwise.kr/cau/handle/2019.sw.cau/53162
DOI
10.1016/j.jiec.2021.12.011
ISSN
1226-086X
1876-794X
Abstract
Silver nanowire (AgNW) networked films have received much attention as transparent conducting materials owing to their excellent conductivity, high transmittance, and moderate cost. In addition, AgNWs can be easily prepared as dispersions in liquids, enabling solution-based processing. Nevertheless, the fabrication of highly transparent AgNW networked electrodes remains challenging owing to the high percolation threshold of AgNWs. In this study, web-like AgNW networked films were fabricated via the dewetting-driven self-assembly of AgNWs using meniscus-dragging deposition. The dewetting of liquid thin films containing AgNWs was finely tuned by adjusting the ethylene glycol content of an AgNW–isopropyl alcohol dispersion and the surface energy of the coating substrate. The obtained AgNW networked electrodes with self-assembled web-like structures had a significantly lower percolation threshold (0.26 μg cm−2) than randomly networked AgNW electrodes (2.53 μg cm−2), resulting in an outstanding combination of sheet resistance and optical transparency (38 Ω sq−1 at T = 96%). This large scalable one-step coating strategy for metal mesh thin films can advance the development of next-generation transparent conducting electrodes. © 2021 The Korean Society of Industrial and Engineering Chemistry
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