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High performance charge plasma based multi zone lateral bipolar junction transistor

机译:基于高性能电荷等离子体的多区横向双极结晶体管

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In this paper, we propose a new structure of a lateral bipolar junction transistor (LBJT) on silicon on insulator (SOI), employing multi zone collector drift region. The novelty of the device is the use of charge plasma concept to realize emitter, base and multi zone collector drift regions. Here metals of different work functions are used to realize these regions instead of conventional doping methods of diffusion and ion implantation. The numerical simulation of the proposed multi zone charge plasma LBJT (MZCP-LBJT) on SOI has been performed and the key characteristics have been compared with the conventionally doped LBJT (CD-LBJT) on SOI. A significant improvement in the ON current (ION), current gain, cutoff frequency (fT) and breakdown voltage has been observed in the proposed device. It has been observed that current gain increases by ~ 20 times and ION by 10 times in the proposed device. Further, by using an optimized gap between the collector and base regions, a 34% increase in fT is achieved in the proposed device. Furthermore, the proposed device does not face doping related issues and the requirement of high temperature processing is absent, as it uses charge plasma concept to realize different regions, instead of the conventional doping methods.
机译:在本文中,我们提出了在绝缘体(SOI)上的硅的横向双极结晶体管(LBJT)的新结构,采用多区集电极漂移区域。该装置的新颖性是使用电荷等离子体概念来实现发射极,基础和多区集电极漂移区域。这里,不同的工作功能的金属用于实现这些区域,而不是传统的扩散和离子注入方法。已经执行了在SOI上的所提出的多区电荷等离子体LBJT(MZCP-LBJT)的数值模拟,并将关键特性与SOI的常规掺杂LBJT(CD-LBJT)进行比较。在所提出的装置中已经观察到电流电流(离子),电流增益,截止频率(FT)和击穿电压的显着改进。已经观察到,在所提出的装置中,电流增益增加〜20次并离子10次。此外,通过使用收集器和基区之间的优化间隙,在所提出的装置中实现了FT的34%的增加。此外,所提出的装置不面对掺杂相关问题,并且不存在高温处理的要求,因为它使用电荷等离子体概念来实现不同的区域,而不是传统的掺杂方法。

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