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Flexible Transparent Electrodes Based on Gold Nanomeshes

机译:基于金纳米网的柔性透明电极

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摘要

The transmittance, conductivity, and flexibility are the crucial properties for the development of next-generation flexible electrodes. Achieving a good trade-off between transmittance and conductivity of flexible electrodes has been a challenge because the two properties are inversely proportional. Herein, we reveal a good trade-off between transmittance and conductivity of gold nanomesh (AuNM) can be achieved through appropriately increasing the AuNM thickness no more than 40 nm, the mean free path of electrons in Au metal. The further flexibility investigation indicates that the AuNM electrodes with mesh structure show higher tolerance than the Au bulk film, and the AuNM electrodes with smaller inter-aperture wire width can accommodate more tensile strains than a counterpart with bigger inter-aperture wire width. The simulated results based on finite element analysis (FEA) show good agreement with experimental results, which indicates the fabrication method of versatile nanosphere lithography (NSL) is reliable. These results established a promising approach toward next-generation large-scale flexible transparent AuNM electrodes for flexible electronics.Electronic supplementary materialThe online version of this article (10.1186/s11671-019-2973-3) contains supplementary material, which is available to authorized users.
机译:透射率,电导率和柔韧性是开发下一代柔性电极的关键特性。在柔性电极的透射率和电导率之间取得良好的折衷一直是一个挑战,因为这两个特性成反比。在这里,我们揭示了通过适当地增加AuNM厚度不超过40 nm(金金属中电子的平均自由程)可以在金纳米网(AuNM)的透射率和电导率之间取得良好的折衷。进一步的灵活性研究表明,具有网孔结构的AuNM电极比Au体膜具有更高的耐受性,并且具有较小孔口线宽的AuNM电极比具有较大孔口线宽的AuNM电极可承受更大的拉伸应变。基于有限元分析(FEA)的仿真结果与实验结果吻合良好,表明通用纳米球光刻(NSL)的制备方法是可靠的。这些结果为下一代用于柔性电子产品的大规模柔性透明AuNM电极建立了有希望的方法。电子补充材料本文的在线版本(10.1186 / s11671-019-2973-3)包含补充材料,可供授权用户使用。

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