NanoCMOS devices at the end and beyond the roadmap

S. Deleonibus, B. De Salvo, L. Clavelier, T. Ernst, O. Faynot, T. Poiroux, M. Vinet
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引用次数: 4

Abstract

Innovations in electronics history have been possible because of the strong association of devices and materials research. The demand for low voltage, low power and high performance are the great challenges for engineering of sub 50 nm gate length CMOS devices. Functional CMOS devices in the range of 5 nm channel length have been demonstrated. The alternative architectures allowing to increase devices drivability and reduce power are reviewed through the issues to address in gate/channel and substrate, gate dielectric as well as source and drain engineering. HiK gate dielectric and metal gate are among the most strategic options to consider for power consumption and low supply voltage management. It will be very difficult to compete with CMOS logic because of the low series resistance required to obtain high performance. By introducing new materials (Ge, diamond/graphite carbon, HiK,...), Si based CMOS will be scaled beyond the ITRS as the future system-on-chip Platform integrating new disruptive devices. The association of C-diamond with HiK as a combination for new functionalized Buried Insulators, for example, wi ll bring new ways of improving short channel effects and suppress self-heating. That will allow new optimization of Ion-Ioff trade offs. The control of low power dissipation and short channel effects together with high performance w ll be the major challenges in the future.
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纳米mos器件的末端和超越路线图
由于设备和材料研究的紧密联系,电子历史上的创新成为可能。对低电压、低功耗和高性能的需求是50nm栅极长CMOS器件工程的巨大挑战。在5nm通道长度范围内的功能CMOS器件已被证明。通过在栅极/通道和基板、栅极介电介质以及源极和漏极工程中要解决的问题,对允许提高器件驱动性和降低功耗的替代架构进行了审查。HiK栅极电介质和金属栅极是考虑功耗和低电源电压管理的最战略性选择之一。它将很难与CMOS逻辑竞争,因为获得高性能所需的低串联电阻。通过引入新材料(Ge、金刚石/石墨碳、HiK等),Si基CMOS将超越ITRS,成为集成新颠覆性器件的未来片上系统平台。例如,c -金刚石与HiK结合作为新型功能化埋地绝缘子的组合,将带来改善短通道效应和抑制自热的新方法。这将允许新的优化离子-离合权衡。低功耗和短通道效应的控制以及高性能将是未来的主要挑战。
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