Advanced Germanium MOS Devices and Technology

C. O. Chui, K. Saraswat
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引用次数: 2

Abstract

It is believed that below the 65 nm node although the conventional bulk CMOS can be scaled, however, without appreciable performance gains. To continue the scaling of Si CMOS in the sub-65 nm regime, innovative device structures and new mate rials have to be created in order to continue the historic progress in information processing and transmission. One such promising channel material is Ge due to its higher source injection velocity. However, the lack of a sufficiently stable gate dielectric and prior knowledge on doping Ge challenged its MOSFET demonstration. In this paper, we review various advanced Ge MOS device technology on nanoscale gate stack, shallow junction, and low thermal budget integration process, which together have enabled fu nctional metal-gated Ge MOSFETs with high-κ dielectric for the first time.
先进锗MOS器件与技术
据信,在65nm节点以下,虽然传统的块体CMOS可以缩放,但是没有明显的性能提升。为了在sub- 65nm范围内继续Si CMOS的缩放,必须创造创新的器件结构和新的材料,以继续在信息处理和传输方面取得历史性进展。其中一种很有前途的通道材料是锗,因为它具有较高的源注入速度。然而,由于缺乏足够稳定的栅极电介质和对掺杂Ge的先验知识,对其MOSFET的演示提出了挑战。在本文中,我们回顾了各种先进的Ge MOS器件技术,包括纳米级栅极堆叠、浅结和低热预算集成工艺,这些技术首次实现了具有高介电常数的功能性金属门控Ge mosfet。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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