Perspective on Organic Bipolar Transistors

Shu-Jen Wang;Karl Leo
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Abstract

The demonstration of organic bipolar transistor in 2022 completed the missing puzzle in the organic transistor development roadmap. The major obstacle was that the typical amorphous organic semiconductors could not offer high enough carrier mobility to allow sufficiently long minority carrier diffusion length, which is central to bipolar transistor operation. The use of epitaxially grown rubrene with doping together with a novel vertical transistor architecture helps to overcome the carrier mobility challenge and lays the foundation for operational bipolar transistor. Bipolar transistors based on crystalline rubrene exhibit high-speed operation in the gigahertz range and allow direct measurement of minority carrier diffusion. In this perspective, we discuss important aspects in terms of device design and materials for further advances in organic bipolar transistor device performance. We also point out emerging device concepts, such as organic heterojunction bipolar transistor and phototransistor, that could stem out from organic bipolar transistor development and cover further work necessary.
有机双极晶体管展望
2022年有机双极晶体管的演示完成了有机晶体管发展路线图中缺失的拼图。主要的障碍是,典型的非晶有机半导体不能提供足够高的载流子迁移率,以允许足够长的少数载流子扩散长度,这是双极晶体管工作的核心。利用外延生长的rubrene掺杂和一种新的垂直晶体管结构有助于克服载流子迁移率的挑战,并为可操作的双极晶体管奠定基础。基于晶体rubrene的双极晶体管表现出在千兆赫范围内的高速运行,并允许直接测量少数载流子扩散。从这个角度来看,我们讨论了器件设计和材料方面的重要方面,以进一步提高有机双极晶体管器件的性能。我们还指出了新兴的器件概念,如有机异质结双极晶体管和光电晶体管,它们可能源于有机双极晶体管的发展,并涵盖了进一步的工作。
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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