Highly flexible, stretchable, patternable, transparent copper fiber heater on a complex 3D surface

被引:0
|
作者
Hong Seok Jo
Seongpil An
Jong-Gun Lee
Hyun Goo Park
Salem S Al-Deyab
Alexander L Yarin
Sam S Yoon
机构
[1] School of Mechanical Engineering,Department of Chemistry
[2] Korea University,Department of Mechanical and Industrial Engineering
[3] Petrochemicals Research Chair,undefined
[4] King Saud University,undefined
[5] University of Illinois at Chicago,undefined
来源
NPG Asia Materials | 2017年 / 9卷
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摘要
A highly transparent, flexible, stretchable and patternable copper fiber heater was successfully fabricated for potential use in smart windows and other applications. The thickness of the electrospun polymer nanofibers was controlled during subsequent copper plating by adjusting the electroplating time, with minimal sacrifice in transparency. Self-fused junctions, formed via electroplating, significantly reduced the contact resistance between the intersecting copper-plated fibers. The heater temperature remained constant up to 300% sheet stretching. De-icing tests confirmed the potential applicability of such heaters in smart windows or vehicle defrosters. The copper-plated fibers may be transferred onto any surface with a complex 3D structure, as demonstrated by fabricating a heat-radiating Venus statue covered with the copper-plated fibers. The highest temperature of 328 °C was achieved by using a transparent fibrous film having 90% transparency and 0.058 Ω sq−1 sheet resistance.
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页码:e347 / e347
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