用于量子点发光二极管的柔性和透明石墨烯-银纳米线复合电极

Yiyang Li, Weigao Wang, Hua An, Zhengchun Peng
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摘要

本文提出了一种柔性透明的石墨烯-银纳米线复合电极的制备方法。该喷涂方法操作简单,成本低,效率高,可用于大规模制备柔性电极。在石墨烯薄膜上喷涂银纳米线可以克服原始银纳米线网络由于薄膜与衬底之间的高粗糙度和弱物理接触而导致的不良电接触行为。这导致复合电极的导电性是银纳米线薄膜的四倍。经过1万次机械弯曲循环后,银纳米线薄膜的电阻增加了约92%,而复合电极的电阻变化仅为4%,表明其机械柔韧性得到了显著提高。石墨烯薄膜的存在防止了银纳米线的氧化和外力引起的失效。复合电极具有优异的耐湿性能,在相对湿度为35% ~ 95%的较宽湿度条件下,其电阻保持稳定。相比之下,由于潮湿,原始银纳米线薄膜的电阻几乎翻了一番。此外,与商业氧化铟锡电极相比,复合电极具有更好的透光性。良好的导电性和高透光率的结合在柔性显示应用中显示出极大的优势,具有替代商业化ITO薄膜的潜力。
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Flexible and Transparent Composite Electrode of Graphene−Silver nanowires for Quantum-Dot Light-Emitting Diodes
In this work, a flexible and transparent composite electrode of graphene-silver nanowires prepared by spray coating is proposed. The spraying method is easy to operate, low-cost, high-efficiency and can be used to prepare flexible electrodes in a large scale. The sprayed silver nanowires on graphene film can overcome the poor electrical contact behavior of the pristine silver nanowire network due to the high roughness and weak physical contact between the film and the underlying substrate. This results in a conductivity of composite electrode four times that of the silver nanowire film. After 10,000 mechanical bending cycles, the resistance of the silver nanowire film increases about 92%, while the change in the composite electrode is only 4%, indicating a dramatically improved mechanical flexibility. The presence of the graphene film prevents the oxidation of silver nanowires and the failure caused by external forces. The composite electrode demonstrates excellent moisture resistance and their electrical resistance remains stable in a wide humidity condition from 35% to 95% relative humidity. In contrast, the resistance of the pristine silver nanowire film almost doubled because of wetness. Moreover, the composite electrode possesses better light transmission compared to commercial indium tin oxide electrodes. The combined good conductivity and high transmittance show great advantages in flexible display applications and potentiality for replacing the commercialized ITO film.
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