基于石墨烯电极的软有机电子学

Kilwon Cho
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引用次数: 0

摘要

石墨烯被认为是一种优秀的电极材料,具有高透明度,良好的导电性和优越的机械柔韧性,可用于下一代柔性电子器件,同时也是一种有吸引力的高有序有机晶体生长外延模板材料。石墨烯的各种物理化学特性对石墨烯-有机界面附近有机半导体的生长方式、形态和晶体结构产生强烈影响,并对石墨烯基有机电子器件的性能产生关键影响。在这次演讲中,我将讨论基于石墨烯电极的柔性有机电子的挑战、机遇和我们的最新进展。首先,我将描述有机半导体在石墨烯电极上的生长行为,以及它们对有机晶体管和光伏电池性能的影响。然后,我将介绍一个使用有机纳米贴片来修饰cvd生长的石墨烯的新概念,该概念在不降低石墨烯任何其他最高特性的情况下提高了断裂强度。利用这种机械强化的石墨烯,展示了坚固而柔软的有机电子器件。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Soft Organic Electronics Based on Graphene Electrodes
Graphene is considered as an excellent electrode material with a high transparency, good conductivity, and superior mechanical flexibility for use in next-generation flexible electronic devices, and at the same time as an attractive epitaxial template material for highly ordered organic crystal growth. The growth mode, morphology and the crystallographic structure of the organic semiconductors near the graphene-organic interface are strongly affected by various physicochemical characteristics of graphene, and they critically influence the performance of graphene-based organic electronic devices. In this talk I will discuss the challenges, opportunities, and our recent progresses in flexible organic electronics based on graphene electrodes. First, I will describe the growth behaviour of organic semiconductors on graphene electrodes, and their effects on the performances of organic transistors and photovoltaic cells. Then, I will introduce a new concept of using organic nanopatches to modify a CVD-grown graphene, which improved fracture strength without degrading any other supreme characteristics of graphene. With this mechanically strengthened graphene, robust and soft organic electronic devices were demonstrated.
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