Copper Nanowires: A Transparent and Flexible Capacitive‐Force Touch Pad from High‐Aspect‐Ratio Copper Nanowires with Enhanced Oxidation Resistance for Applications in Wearable Electronics (Small Methods 7/2018) | Zendy

Kim Dongkwan | Zendy; Kwon Jinhyeong | Zendy; Jung Jinwook | Zendy; Kim Kyunkyu | Zendy; Lee Habeom | Zendy; Yeo Junyeob | Zendy; Hong Sukjoon | Zendy; Han Seungyong | Zendy; Ko Seung Hwan | Zendy

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Copper Nanowires: A Transparent and Flexible Capacitive‐Force Touch Pad from High‐Aspect‐Ratio Copper Nanowires with Enhanced Oxidation Resistance for Applications in Wearable Electronics (Small Methods 7/2018)

Author(s) -

Kim Dongkwan,

Kwon Jinhyeong,

Jung Jinwook,

Kim Kyunkyu,

Lee Habeom,

Yeo Junyeob,

Hong Sukjoon,

Han Seungyong,

Ko Seung Hwan

Publication year - 2018

Publication title -

small methods

Language(s) - English

Resource type - Journals

SCImago Journal Rank - 4.66

H-Index - 46

ISSN - 2366-9608

DOI - 10.1002/smtd.201870036

Subject(s) - materials science , nanowire , copper , capacitive sensing , conductor , nanotechnology , polyurethane , coating , optoelectronics , electronics , wearable computer , composite material , electrical engineering , metallurgy , computer science , embedded system , engineering

In article number 1800077 , Seungyong Han, Seung Hwan Ko, and co‐workers report a novel copper‐nanowire synthesis method development to control both the nanowire morphology and the synthesis yield, together with their application as a highly flexible and transparent conductor for a capacitive‐type touch sensor. The copper‐nanowire transparent conductor shows an enhanced oxidation resistance by coating it with a UV‐curable polyurethane acrylate resin and is expected to be very useful in various flexible/wearable device applications.

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