Nanometer-scale InGaAs Field-Effect Transistors for THz and CMOS technologies

J. Alamo
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引用次数: 12

Abstract

Integrated circuits based on InGaAs Field Effect Transistors are currently in wide use in the RF front-ends of smart phones and other mobile platforms, wireless LANs, high data rate fiber-optic links and many defense and space communication systems. InGaAs ICs are also under intense research for new millimeter-wave applications such as collision avoidance radar and gigabit WLANs. InGaAs FET scaling has nearly reached the end of the road and further progress to propel this technology to the THz regime will require significant device innovations. Separately, as Si CMOS faces mounting difficulties to maintain its historical density scaling path, InGaAs-channel MOSFETs have recently emerged as a credible alternative for mainstream logic technology capable of scaling to the 10 nm node and below. To get to this point, fundamental technical problems had to be solved though there are still many challenges to be addressed before the first non-Si CMOS technology becomes a reality. The intense research that this exciting prospect is generating is also reinvigorating the prospects of InGaAs FETs to become the first true THz electronics technology. This paper reviews progress and challenges of InGaAs-based FET technology for THz and CMOS.
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用于太赫兹和CMOS技术的纳米InGaAs场效应晶体管
基于InGaAs场效应晶体管的集成电路目前广泛应用于智能手机和其他移动平台的射频前端、无线局域网、高数据速率光纤链路以及许多国防和空间通信系统。在新的毫米波应用领域,如防撞雷达和千兆无线局域网,InGaAs集成电路也在深入研究中。InGaAs FET的缩放已经接近尾声,进一步推进该技术到太赫兹范围将需要重大的器件创新。另外,由于Si CMOS在保持其历史密度缩放路径方面面临越来越大的困难,ingaas通道mosfet最近成为主流逻辑技术的可靠替代方案,能够缩放到10nm节点及以下。为了达到这一点,必须解决基本的技术问题,尽管在第一个非si CMOS技术成为现实之前仍有许多挑战需要解决。这一令人兴奋的前景所产生的激烈研究也重振了InGaAs fet成为第一个真正的太赫兹电子技术的前景。本文综述了基于ingaas的太赫兹和CMOS场效应管技术的进展和挑战。
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