First demonstration of heterojunction-free GaN nanochannel FinFETs

Ki-Sik Im, Y. Jo, Ki‐Won Kim, Dong‐Seok Kim, Hee-Sung Kang, C. Won, Ryun-Hwi Kim, S. Jeon, D. Son, Y. Kwon, Jae-Hoon Lee, S. Cristoloveanu, Jung-Hee Lee
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引用次数: 3

Abstract

Heavily doped GaN nanochannel FinFET has been proposed and fabricated, for the first time, which does not have any p-n junction or heterojunction. In spite of its easy and simple epitaxial growth and fabrication process, the fabricated device with nanochannel width of 80 nm and gate length of 1 μm exhibited excellent off-state performances such as extremely low off-state leakage current of ~ 10-11 mA with BV of ~ 300 V and subthreshold slope of 68 mV/decade, very close to the theoretically limited value, which leads to high Ion/Ioff ratio of 107 ~ 109. The device also exhibited high on-state performances such as maximum drain current of 562 mA/mm and maximum transconductance of 138 mS/mm. The proposed nanochannel GaN FinFET can be very promising candidate not only for high performance, but also high power applications.
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首次展示无异质结的GaN纳米通道finfet
本文首次提出并制备了无pn结和异质结的重掺杂GaN纳米通道FinFET。尽管外延生长和制作工艺简单易行,但所制备的器件在纳米通道宽度为80 nm、栅极长度为1 μm的情况下具有优异的关态性能,如极低的关态泄漏电流为~ 10-11 mA, BV为~ 300 V,亚阈值斜率为68 mV/decade,非常接近理论极限值,从而导致离子/断流比高达107 ~ 109。该器件还具有较高的导通性能,如最大漏极电流为562 mA/mm,最大跨导为138 mS/mm。所提出的纳米通道GaN FinFET不仅具有高性能,而且具有高功率应用前景。
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