Ultra fast (<1 ns) electrical characterization of self-heating effect and its impact on hot carrier injection in 14nm FinFETs

Y. Qu, Xi Lin, Junkang Li, R. Cheng, Xiao Yu, Z. Zheng, Jiwu Lu, Bing Chen, Yi Zhao
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引用次数: 31

Abstract

We demonstrate electrical characterizations within sub-1 ns to investigate the self-heating effect (SHE) in 14 nm FinFETs, for the first time. Thanks to the extremely fast I-V measurement speed (∼500 ps), the heat generation and dissipation process in the transistor channel are precisely captured. Furthermore, the unique correlation between channel temperature and drain current at different gate and drain biases is obtained. With this correlation, the transient and static channel temperatures could be extracted for devices with any working conditions and switching speeds. The impact of SHE on HCI degradation under real circuit stress is also investigated, showing that even under high frequency working conditions (GHz with random signals), SHE still has significant impact on HCI degradation in 14 nm FinFETs.
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14nm finfet中超快(< 1ns)自热效应的电学特性及其对热载流子注入的影响
我们首次展示了sub- 1ns内的电特性,以研究14nm finfet的自热效应(SHE)。由于极快的I-V测量速度(~ 500 ps),可以精确捕获晶体管通道中的热量产生和耗散过程。此外,在不同的栅极和漏极偏置下,通道温度与漏极电流之间具有独特的相关性。利用这种相关性,可以提取任何工作条件和开关速度下的器件的瞬态和静态通道温度。在实际电路应力下,SHE对HCI退化的影响也进行了研究,表明即使在高频工作条件下(随机信号的GHz), SHE仍然对14nm finfet的HCI退化有显著影响。
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