镶嵌:一种将非易失性布尔逻辑映射到忆阻器横条上的方案

Lei Xie
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引用次数: 0

摘要

未来VLSI电路的新兴技术正在研究中。忆阻交叉栅由于具有可扩展性、非易失性等优点,是很有前途的候选器件之一。近年来提出了一种基于忆阻交叉棒的非易失性逻辑电路。然而,这些逻辑电路只能在交叉棒上映射单个构建块(例如,1位全加法器),并且如何在交叉棒上映射多个构建块并没有解决,这对于实现VLSI电路至关重要。本文提出了一种将多个构建块映射到忆阻器交叉棒上的方案,该方案可以同时优化每个构建块的时延。在此基础上,提出了从延迟、面积和功耗等方面优化设计的两种方法。为了说明所提出的映射方案的潜力,多比特加法器被用作案例研究;对交叉栅及其CMOS控制器的延迟、面积和功耗进行了评估。结果表明,优化后的设计与初始设计相比,面积减小(>23%),时延减小(>26%),功耗减小(>21%)。最后,将我们的设计与最先进的设计进行比较。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Mosaic: A scheme of mapping non-volatile Boolean logic on memristor crossbar
Emerging technologies are under research for future VLSI circuits. Memristor crossbar is one of the promising candidates due to its scalability, non-volatility, etc. Non-volatile logic circuits based on memristor crossbar have been proposed recently. However, these logic circuits can merely map a single building block (e.g., 1-bit full adder) on a crossbar, and how to map multiple building blocks on a crossbar is not addressed, which is crucial to implement a VLSI circuit. This paper proposes a scheme to map multiple building blocks on memristor crossbar, which can simultaneously optimize the delay for each block. In addition, two techniques to optimize the design in terms of delay, area and power consumption are proposed. To illustrate the potential of the proposed mapping scheme, multi-bit adders are used as a case study; their delay, area and power costs for both crossbar and its CMOS controller are evaluated. The results show that the optimized designs reduce area (>23%), delay (>26%) and power consumption (>21%) as compared to initial designs. Finally, our designs are compared with state-of-the-art.
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