完全耗尽极薄SOI主流20nm低功耗技术和超越

Ali Khaki-Firooz, K. Cheng, B. Jagannathan, P. Kulkarni, J. Sleight, D. Shahrjerdi, Josephine B. Chang, Sungjae Lee, Junjun Li, H. Bu, R. Gauthier, B. Doris, G. Shahidi
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引用次数: 39

摘要

极薄SOI (ETSOI) MOSFET因其出色的短通道控制、低泄漏电流和抗随机掺杂波动能力而成为22nm及以上技术的有吸引力的候选[1-5]。短沟道效应主要由沟道厚度控制,因此不需要栅极电介质的严重结垢。因此,栅极泄漏比高k块技术所能达到的更低。由于未掺杂的通道,低功耗操作进一步增强了可忽略不计的GIDL电流。此外,ETSOI器件由于具有薄硅沟道而具有固有的无结漏。由于亚阈值斜率较小,与批量技术相比,在给定的电源电压下实现了更高的栅极电压过载。这允许低vdd逻辑操作。此外,在未掺杂的通道[5]中,较小的VT-失配支持了低vdd SRAM功能。在传统的CMOS技术中,如果需要改变VT,则需要重新设计整个器件。然而,在ETSOI中,阈值电压通过栅极功函数调制而不改变通道掺杂。因此,VT调谐在很大程度上与设备缩放解耦。
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Fully depleted extremely thin SOI for mainstream 20nm low-power technology and beyond
Extremely thin SOI (ETSOI) MOSFET is an attractive candidate for 22nm technology and beyond due to its excellent short channel control, low leakage current, and immunity to random dopant fluctuation [1–5]. Short channel effects are mainly controlled by channel thickness, so there is no need for aggressive scaling of the gate dielectric. Thus the gate leakage is reduced beyond what is achievable in high-k bulk technologies. Low-power operation is further enhanced by negligible GIDL current due to the undoped channel. In addition, ETSOI devices have inherently no junction leakage by the virtue of thin silicon channel. Higher gate voltage overdrive is achieved for a given supply voltage compared to bulk technologies due to smaller subthreshold slope. This enables low-VDD logic operation. Moreover, low-VDD SRAM functionality is supported by small VT- mismatch in undoped channel [5]. In conventional CMOS technologies, complete device redesign is needed if VT changes are required. In ETSOI, however, threshold voltage is tuned through gate workfunction modulation without change in the channel doping. Thus VT tuning is to a large extent decoupled from device scaling.
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