Interfacial layer dependence of High-K gate stack based Conventional trigate FinFET concerning analog/RF performance

Shubham Tayal, Ashutosh Nandi
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引用次数: 5

Abstract

In this paper, the effect of interfacial layer thickness (TI) on the analog/RF performance of high-$k$ gate-stack based conventional trigate FinFET has been studied. It is found that the deterioration in analog/RF performance caused by high-$K$ gate dielectrics may be mitigated by using a thicker interfacial layer of silicon dioxide. The deterioration in intrinsic dc gain $(\Delta \mathrm{Av}== \mathrm{Av}_{(\mathrm{k}=3.9)} - \mathrm{Av}_{(\mathrm{k}=40)})$ and cut-off frequency $(\Delta \mathrm{f_{T}} = \mathrm{f_{T(K=3.9)}} - \mathrm{f_{T(K=40)})}$ is 7.14 dB & 13.4 GHz respectively for interfacial layer thickness of 0.2 nm and 2.27 dB & 8.7 GHz respectively for interfacial layer thickness of 0.7 nm. Thus, usage of high-$K$ gate dielectric with thicker interfacial layer is more beneficial in trigate FinFET devices for better analog/RF performance.
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基于高k栅极堆叠的传统三栅极FinFET对模拟/射频性能的界面层依赖性
本文研究了界面层厚度(TI)对基于高k栅极堆叠的传统三栅极FinFET模拟/射频性能的影响。研究发现,使用较厚的二氧化硅界面层可以减轻高K栅极电介质引起的模拟/射频性能下降。当界面层厚度为0.2 nm时,本征直流增益$(\Delta \ mathm {Av}== \ mathm {Av}_{(\ mathm {k}=3.9)} - \ mathm {Av}_{(\ mathm {k}=40)})$和截止频率$(\Delta \ mathm {f_{T}} = \ mathm {f_{T(k =3.9)}} - \ mathm {f_{T(k =40)})}$的衰减分别为7.14 dB和13.4 GHz;当界面层厚度为0.7 nm时,本征直流增益$(\Delta \ mathm {Av}== \ mathm {Av}}} $的衰减分别为2.27 dB和8.7 GHz。因此,在三栅极FinFET器件中使用具有较厚界面层的高K栅极介电介质更有利于获得更好的模拟/射频性能。
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