Organic field effect transistors with bulk low doping

Raj Kishen Radha Krishnan, Shiyi Liu, Drona Dahal, P. Paudel, B. Lüssem
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Abstract

Organic Field Effect Transistors (OFETs), while showing a lot of promise, currently suffer from a number of limitations. Organic doping can help to overcome these limitations. It opens up a number of new possibilities by offering a way to define majority charge carriers, control the charge carrier density, threshold voltage etc. precisely and produce devices with better performance, stability, and reproducibility. The doping techniques explored in OFETs thus far have been in the range of a few wt.%, which has limited the use of doping to contact doping or a thin doped layer at the gate dielectric interface. Furthermore, the high doping concentrations used place serious limitations on the doping efficiency that can be achieved. Here we demonstrate the successful use of low doping in the 100ppm range throughout the bulk of the organic semiconductor layer of an OFET with the use of a rotating shutter.
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本体低掺杂有机场效应晶体管
有机场效应晶体管(ofet),虽然显示出许多希望,目前受到许多限制。有机掺杂可以帮助克服这些限制。它提供了一种精确定义大多数载流子、控制载流子密度、阈值电压等的方法,从而开辟了许多新的可能性,并生产出具有更好性能、稳定性和可重复性的器件。迄今为止,在ofet中探索的掺杂技术都在几个wt.%的范围内,这限制了掺杂在接触掺杂或在栅介电界面处的薄掺杂层的使用。此外,使用的高掺杂浓度严重限制了可以实现的掺杂效率。在这里,我们展示了在使用旋转快门的OFET的整个有机半导体层中,在100ppm范围内成功地使用低掺杂。
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