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摘要:
The hot-carrier degradation for 90 nm gate length lightly-doped drain (LDD) NMOSFET with ultra-thin (1.4 nm) gate oxide under the low gate voltage (LGV) (at Vg=Vth,where Vth is the threshold voltage) stress has been investigated.It is found that the drain current decreases and the threshold voltage increases after the LGV (Vg=Yth) stress.The results are opposite to the degradation phenomena of conventional NMOSFET for the case of this stress.By analysing the gate-induced drain leakage (GIDL) current before and after stresses,it is confirmed that under the LGV stress in uItra-short gate LDD-NMOSFET with ultra-thin gate oxide,the hot holes are trapped at interface in the LDD region and cannot shorten the channel to mask the influence of interface states as those in conventional NMOSFET do.which leads to the different degradation phenomena from those of the conventional NMOS devices.This paper also discusses the degradation in the 90 nm gate length LDD-NMOSFET with 1.4 nm gate oxide under the LGV stress at Vg=Vth with various drain biases.Experimental results show that the degradation slopes(n) range from 0.21 to 0.41.The value of n is less than that of conventional MOSFET(0.5-0.6) and also that of the long gate length LDD MOSFET (~0.8).
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篇名 Hot-carrier degradation for 90 nm gate length LDD-NMOSFET with ultra-thin gate oxide under low gate voltage stress
来源期刊 中国物理(英文版) 学科
关键词 threshold voltage lightly doped drain gate-induced drain leakage current hot hole
年,卷(期) 2007,(3) 所属期刊栏目
研究方向 页码范围 821-825
页数 5页 分类号
字数 语种 英文
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threshold voltage
lightly doped drain
gate-induced drain leakage current
hot hole
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中国物理B(英文版)
月刊
1674-1056
11-5639/O4
北京市中关村中国科学院物理研究所内
eng
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17050
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0
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27962
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