纳米磁体逻辑扇出的实验演示

E. Varga, S. Liu, M. Niemier, W. Porod, X.S. Hu, G. Bernstein, A. Orlov
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引用次数: 26

摘要

纳米级磁铁可以通过边缘场相互作用来处理和移动信息。电线、栅极和逆变器都在室温下进行了演示(图1a-c)1。纳米磁体逻辑(NML)器件可以用标准的光刻技术制造,即使有驱动电路开销,也有可能获得比CMOS更高的能量/性能。尽管如此,孤立地展示电线和门并不等同于一个可部署的数字系统。对于系统,人们普遍认为一项技术必须满足五个标准:(i)器件应具有非线性响应特性,(ii)一个器件的输出必须驱动另一个器件,(iii)不应发生不需要的数据流(或反馈),(iv)器件必须启用功能完整的逻辑集,以及(v)需要功率放大(或增益大于1)。本文报道了数字逻辑的第五个原理——扇出的实验演示。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Experimental demonstration of fanout for Nanomagnet Logic
Nanoscale magnets can process and move information via fringing field interactions. Wires, gates, and inverters have been demonstrated (Fig. 1a-c)1 - all at room temperature. Nanomagnet Logic (NML) devices can be made with standard lithographic techniques, and even with drive circuitry overhead, energy/performance gains over CMOS are possible2. Still, demonstrating wires and gates in isolation does not equate to a deployable digital system. For systems, it is widely accepted that a technology must meet five criteria3 - (i) a device should have non- linear response characteristics, (ii) the output of one device must drive another, (iii) unwanted dataflow (or feedback) should not occur, (iv) a device must enable a functionally complete logic set, and (v) power amplification (or gain greater than 1) is needed. We report experimental demonstration of the fifth tenet of digital logic - fanout.
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