老化MOSFET陷阱密度增加的普遍特征及其紧凑建模

F. A. Herrera, M. Miura-Mattausch, T. Iizuka, H. Kikuchihara, H. Mattausch, H. Takatsuka
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引用次数: 1

摘要

我们的研究重点是精确的电路老化预测的大块mosfet。提出了一种考虑陷阱密度N陷阱增加作为老化源的自一致老化模型。在泊松方程中考虑了该N阱与MOSFET内诱导的其他电荷。结果表明,由器件应力引起的N陷阱增加作为集成衬底电流的函数的普遍关系可以简单地描述MOSFET在任何器件工作条件下的老化。结果表明,N阱的斜率呈指数增长,且斜率为常数和一元,可以很好地预测老化现象,达到高应力退化的饱和状态。此外,还验证了模型的通用性,适用于任何设备尺寸。与现有的传统电路仿真老化模型进行了比较,以证明所开发的建模方法所带来的简化。
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Universal Feature of Trap-Density Increase in Aged MOSFET and Its Compact Modeling
Our investigation focuses on accurate circuit aging prediction for bulk MOSFETs. A self-consistent aging modeling is proposed, which considers the trap-density N trap increase as the aging origin. This N trap s considered in the Poisson equation together with other charges induced within MOSFET. It is demonstrated that a universal relationship of the N trap increase as a function of integrated substrate current, caused by device stress, can describe the MOSFET aging in a simple way for any device-operating conditions. An exponential increase with constant and unitary slope of the N trap is found to successfully predict the aging phenomena, reaching a saturation for high stress degradation. The model universality is verified additionally for any device size. Comparison with existing conventional aging modeling for circuit simulation is discussed for demonstrating the simplifications due to the developed modeling approach.
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