Modelling of breakdown voltage in sub-micron SOI transistors

G. A. Armstrong, W. French, J. Alderman
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引用次数: 2

Abstract

Model validation for submicron SIMOX (separation by implantation of oxygen) transistors by careful comparison of the simulated and measured snapback voltages as a function of gate length is reported. The transistors were fabricated in SIMOX material with an estimated film thickness of 0.2 mu m, a buried insulator thickness of 0.4 mu m, and a gate oxide thickness of 20 nm. The measured threshold voltage of the 1 mu m n-channel transistor was 1.08 V and the subthreshold slope 86 mV/decade. The snapback voltage was defined as the maximum drain voltage at which the transistor turns off, when swept in the direction of decreasing gate voltage. Excellent agreement has been achieved over a range of transistor gate lengths down to 0.5 mu m. Two-dimensional device simulation can be used to determine the optimum transistor structure by considering the factors associated with engineering both the source and drain regions with a view to maximizing the breakdown voltage.<>
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亚微米SOI晶体管击穿电压的建模
本文报道了亚微米SIMOX(氧注入分离)晶体管的模型验证,通过仔细比较模拟和测量的snapback电压作为栅极长度的函数。晶体管采用SIMOX材料制备,薄膜厚度约为0.2 μ m,埋地绝缘体厚度约为0.4 μ m,栅极氧化物厚度约为20 nm。测量到1 μ m n沟道晶体管的阈值电压为1.08 V,亚阈值斜率为86 mV/ 10年。当沿栅极电压减小的方向扫频时,回吸电压被定义为晶体管关断时的最大漏极电压。在低至0.5 μ m的晶体管栅极长度范围内,已经取得了非常好的一致性。二维器件模拟可以通过考虑与源极和漏极区域工程相关的因素来确定最佳晶体管结构,以最大化击穿电压。
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The influence of emitter efficiency on single transistor latch in silicon-on-insulator MOSFETs Low-field charge injection in SIMOX buried oxides The effect of high field stress on the capacitance/voltage characteristics of buried insulators formed by oxygen implantation Polysilicon thin film transistors with field-plate-induced drain junction for both high-voltage and low-voltage applications Persistent photoconductivity in SIMOX films
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