自旋扭矩纳米振荡器作为未来系统芯片的关键构建模块

M. Stan, M. Kabir, S. Wolf, Jiwei Lu
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引用次数: 6

摘要

新兴的纳米技术通过提供“超越摩尔”的能力,有可能彻底改变半导体工业。新兴技术不是试图在传统CMOS仍然占主导地位的领域(如数字处理)竞争,而是可以在传统解决方案无法扩展的领域(如内存、互连、模拟和混合信号以及射频)为CMOS提供完美的补充。本文重点介绍了这种新兴的纳米技术,自旋扭矩纳米振荡器(STNOs)在片上混合信号和射频应用中的应用。体积庞大且耗电的CMOS有源(如振荡器和放大器)和无源(如电容器和螺旋电感)元件可以被单个STNO纳米器件取代,其整体指标得到改善:单侧占地面积小,约为100nm,低功耗,高q,可调性等。此外,由于STNOs基本上使用与自旋扭矩传递RAM (STT-RAM)相似的材料和几何形状,因此它们可以很容易地集成在芯片上,并且可以从该领域的所有进步中受益。本文提出了一种适用于片上混合信号和射频应用的新型STNO器件结构,以及几种利用STNO器件特性获得所需行为的STNO/CMOS混合电路,如频率产生、通陷滤波器等。
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Spin torque nano oscillators as key building blocks for the Systems-on-Chip of the future
Emerging nanotechnologies have the potential to completely revolutionize the semiconductor industry by providing “more than Moore” capabilities. Instead of trying to compete in areas where conventional CMOS is still dominant, such as digital processing, emerging technologies can provide a perfect complement to CMOS in areas where conventional solutions are not scaling, such as memory, interconnect, analog and mixed-signal, and RF. This paper focuses on the application of such an emerging nanotechnology, Spin Torque Nano Oscillators (STNOs), for on-chip mixed-signal and RF applications. Bulky and power-hungry CMOS active (e.g. oscillators and amplifiers) and passive (e.g. capacitors and spiral inductors) elements can be replaced by single STNO nanodevice with improved overall metrics: small footprint of the order of 100nm on a side, low power, high-Q, tunability, etc. Additionally, since STNOs fundamentally use similar materials and geometries as Spin Torque Transfer RAM (STT-RAM), they can be readily integrated on chip and can benefit from all advances in that field. This paper proposes a new STNO device structure appropriate for on-chip mixed-signal and RF applications, as well as several hybrid STNO/CMOS circuits that take advantage of the STNO device characteristics to obtain desired behaviors, such as frequency generation, pass and notch filters, etc.
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