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首页> 外文期刊>SID International Symposium: Digest of Technology Papers >Uniaxially Cracked ITO on PET Substrate and its Application in Flexible Displays
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Uniaxially Cracked ITO on PET Substrate and its Application in Flexible Displays

机译:PET基板上的单轴裂纹ITO及其在柔性显示器中的应用

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摘要

Uniaxially cracked indium tin oxide (ITO) on a polyethylene terephthalate (PET) substrate and its application in replacing photolithography to make stripe ITO electrodes were developed. An ITO coated PET (ITO/PET) film uniformly and controllably rolled and uniaxially cracked. This procedure produced fine, parallel cracks in the ITO separated by 5~10 microns. The crack separation and electrical isolation of the resulting long and thin ITO electrodes was enhanced by etching with dilute hydrogen chloride (HCl) or by uniaxially stretching. Heating and stretching proves the most effective, producing a crack width of about 0.05 microns and a differential conductivity (measured parallel and perpendicular to the cracks) in the resulting films greater than two orders of magnitude. A polymer dispersed liquid crystal (PDLC) shutter was prepared using the cracked ITO/PET film as one substrate. The addressed lines were defined by the contact electrode. The sharpness of the line edges increased as the drive frequency was increased. This PDLC prototype demonstrated how photolithographic etching of ITO or printing of conducting polymer could be replaced by controlled cracking of ITO to produce the line electrodes required for flexible, passive matrix displays and in related flexible electronic applications.
机译:开发了在聚对苯二甲酸乙二醇酯(PET)基底上的单轴裂纹铟锡氧化物(ITO)及其在代替光刻技术以制造条状ITO电极中的应用。 ITO涂层的PET(ITO / PET)薄膜均匀可控地滚动和单轴开裂。此过程在ITO中产生了细小且平行的裂纹,相隔5〜10微米。通过用稀氯化氢(HCl)蚀刻或通过单轴拉伸,可以增强所得长而薄的ITO电极的裂纹分离和电绝缘性。事实证明,加热和拉伸是最有效的方法,在所得的薄膜中产生大于约两个数量级的裂缝宽度约为0.05微米,并产生差异电导率(平行于裂缝和垂直于裂缝测得)。使用破裂的ITO / PET膜作为一个基板,制备了聚合物分散液晶(PDLC)快门。寻址线由接触电极定义。线边缘的清晰度随着驱动频率的增加而增加。该PDLC原型演示了如何通过控制ITO的开裂来代替ITO的光刻蚀刻或导电聚合物的印刷,以生产柔性,无源矩阵显示器以及相关的柔性电子应用所需的线电极。

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