六边形是标杆:设计自动化的硅悬垂键逻辑

Marcel Walter, S. S. H. Ng, K. Waluś, R. Wille
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引用次数: 10

摘要

场耦合纳米计算(FCN)定义了一类后cmos纳米技术,承诺紧凑的布局,低功耗运行和高时钟速率。作为量子点的硅悬空键(sidb)制造的最新突破使低于30 nm2的OR门和线段的演示成为可能。这促使研究团体投入体力劳动来设计额外的门和整个电路,然而,目前受到可扩展性问题的严重限制。在这项工作中,通过引入设计自动化框架来克服这些限制,该框架建立了基于六边形的灵活拓扑以及相应的Bestagon门库,此外,还为物理设计提供了自动化方法。在此基础上,提出了第一个具有发展前景的SiDB平台设计自动化解决方案。为了支持开放研究和开放数据,最终的框架和所有设计文件都将提供。
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Hexagons are the bestagons: design automation for silicon dangling bond logic
Field-coupled Nanocomputing (FCN) defines a class of post-CMOS nanotechnologies that promises compact layouts, low power operation, and high clock rates. Recent breakthroughs in the fabrication of Silicon Dangling Bonds (SiDBs) acting as quantum dots enabled the demonstration of a sub-30 nm2 OR gate and wire segments. This motivated the research community to invest manual labor in the design of additional gates and whole circuits which, however, is currently severely limited by scalability issues. In this work, these limitations are overcome by the introduction of a design automation framework that establishes a flexible topology based on hexagons as well as a corresponding Bestagon gate library for this technology and, additionally, provides automatic methods for physical design. By this, the first design automation solution for the promising SiDB platform is proposed. In an effort to support open research and open data, the resulting framework and all design files will be made available.
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