From bulk toward FDSOI and silicon nanowire transistors: Challenges and opportunities

T. Hiramoto
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引用次数: 2

Abstract

The silicon MOS transistors for VLSI have been scaled down for more than forty years in order to attain higher speed, lower power, higher integration, and lower cost. The gate length is now less than 30 nm. The silicon devices are certainly in the nanometer regime. Fig. 1 shows technology nodes and gate length according to ITRS [1]. It is predicted in the 2009 version of ITRS that the gate length will become less than 10 nm in 2021 in production. In the research level, a CMOS device with 3.8nm gate length has already been reported [2]. However, there are a lot of technical barriers to realize the 10nm-scale CMOS devices. It is now well recognized that simple scaling of bulk MOSFETs will fail in the nanometer regime. Every effort to extend the CMOS platform to future information technologies is being made. In this talk, transistor evolution for further CMOS extension is presented. Conventional planar bulk MOSFETs are compared with emerging fully-depleted SOI MOSFETs and nanowire MOSFETs in terms of short channel effects, carrier transport, and variability, and the advantages of new channel structures are discussed.
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从体块到FDSOI和硅纳米线晶体管:挑战与机遇
为了实现更高的速度、更低的功耗、更高的集成度和更低的成本,用于超大规模集成电路的硅MOS晶体管已经缩小了四十多年。栅极长度现在小于30 nm。硅器件当然是纳米级的。图1为按ITRS计算的技术节点和闸长[1]。在2009版的ITRS中,预计栅极长度将在2021年量产时小于10纳米。在研究层面,已经报道了栅极长度为3.8nm的CMOS器件[2]。然而,实现10nm级CMOS器件存在许多技术障碍。现在已经很清楚地认识到,体mosfet的简单缩放将在纳米范围内失败。人们正在尽一切努力将CMOS平台扩展到未来的信息技术。在这个演讲中,晶体管的进一步扩展CMOS提出了发展。在短沟道效应、载流子输运和可变性方面,将传统的平面体mosfet与新兴的完全耗尽SOI mosfet和纳米线mosfet进行了比较,并讨论了新沟道结构的优势。
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