Low-voltage operating, high mobility top-gate structural flexible organic thin-film transistor with a one-step spin-coated binary polymer gate dielectric

Jing Su, Zhenxiang Yan, Yijie Lin, W. Xie, Wei Wang
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Abstract

Low-voltage operation is one of the prerequisites for the practical applications of the organic thin-film transistors (OTFTs). Up to date, the most reported low-voltage operatable OTFTs use a bottom-gate structure, and are fabricated by several different technologies in the whole process, in which the organic semiconductors and/or gate dielectrics are prepared in the expensive vacuum equipment. The simple fabricating technologies and fewer processes can better demonstrate the inherent advantages, and enhance the commercial competitiveness of OTFTs. Here, we propose a strategy to fabricate the binary polymers gate dielectric by one-step spin-coating in the top-gate structured flexible OTFTs, by which not only the device performances are prominently improved, but also the fabricating process of the OTFTs is minimized. As a result, the flexible OTFTs exhibit a high mobility over 0.5 cm2/Vs, low threshold voltage near to -0.5 V, and excellent mechanical bending durability with a very slightly performances degradation after the tensile and compressive bending at a small curvature radius of 3.0 mm over 1000 cycles.
采用一步法旋涂二元聚合物栅极电介质的低电压工作、高迁移率顶栅结构柔性有机薄膜晶体管
低压工作是有机薄膜晶体管(OTFT)实际应用的先决条件之一。迄今为止,报道最多的低压可操作 OTFT 采用底层栅极结构,在整个制造过程中采用了多种不同的技术,其中有机半导体和/或栅极电介质是在昂贵的真空设备中制备的。简单的制造技术和较少的工艺流程能更好地体现 OTFT 的内在优势,提高其商业竞争力。在此,我们提出了一种在顶栅结构柔性 OTFT 中一步旋涂制备二元聚合物栅极电介质的策略,不仅能显著提高器件性能,还能最大限度地减少 OTFT 的制备工艺。因此,这种柔性 OTFT 具有超过 0.5 cm2/Vs 的高迁移率、接近 -0.5 V 的低阈值电压,以及出色的机械弯曲耐久性,在曲率半径为 3.0 mm 的小弯曲条件下,经过 1000 次拉伸和压缩弯曲后,性能下降非常轻微。
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