Organic field effect transistor OFET optimization considering volume channel conduction mechanism

C. Ravariu, D. Dragomirescu, F. Babarada, D. Prelipceanu, B. Patrichi, Cristina Gorciu, D. Manuc, A. Salageanu
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引用次数: 1

Abstract

The main contribution of this paper is to highlight a new work regime of an optimised organic field effect transistor (OFET) respectively volume channel mode. If the device comprises a vertical n+p junction on insulator, the longitudinal conduction can be deviated by two gates. The carriers rejection from surface deep into the volume is limited by the metallurgical junction, via the top, bottom gates and deep contacts for source and drain. In respect with the electrodes biasing, a new work regime is defined. The conduction is allowed by a volume n-channel, for both negative gate voltages, with the advantage of interface conduction avoiding. A current density of 1.45μA/cm2 occurs in this situation for usual biasing. After the final analysis, a distinct device function is encountered - transistor with volume channel. The situation is analysed versus the traditional OFET case with neutral or accumulation channels.
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考虑体积沟道传导机制的有机场效应晶体管OFET优化
本文的主要贡献是强调了一种优化的有机场效应晶体管(OFET)的新的工作体制,分别是体积通道模式。如果器件在绝缘子上有一个竖直的n+p结,则纵向导通可以被两个栅极偏离。从表面深入到体积的载流子被冶金结限制,通过顶部,底部闸门和源和漏的深触点。在电极偏置方面,定义了一种新的工作机制。在两个负栅极电压下,通过体积n通道允许导通,具有避免界面导通的优点。在这种情况下,通常偏置的电流密度为1.45μA/cm2。经过最后的分析,我们遇到了一个不同的器件功能——带体积通道的晶体管。对比具有中性通道或累积通道的传统OFET情况,分析了这种情况。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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