SPICE analysis of dense memristor crossbars for low power neuromorphic processor designs

C. Yakopcic, Raqibul Hasan, T. Taha, D. Palmer
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引用次数: 18

Abstract

This paper provides an analysis of neuromorphic circuits that are capable of learning logic functions. In this paper the training simulations are carried out in SPICE. Our simulations capture low level circuit functionality within the memristor crossbars as well as wire resistances between memristors. This is essential when properly modeling crossbar circuits. Wire resistances, wire capacitances, output comparators, and the number of data inputs are all investigated in this paper to show how these may impact a larger neuromorphic crossbar. Furthermore, it was shown that neural networks can properly train the passive memristor-based crossbars without having to use virtual ground mode operational amplifiers as suggested in previous work. This reduces the number of transistors required by the circuit by about 3 times and reduces the circuit power consumption by about 50 times when compared to the virtual ground design. The key impact of this study is the demonstration through low level circuit simulations that dense memristor crossbars can be effectively utilized to build neuromorphic processors.
用于低功耗神经形态处理器设计的密集忆阻交叉栅的SPICE分析
本文分析了能够学习逻辑功能的神经形态回路。本文在SPICE中进行了训练仿真。我们的模拟捕获了忆阻器横条内的低电平电路功能以及忆阻器之间的导线电阻。当正确建模交叉电路时,这是必不可少的。导线电阻、导线电容、输出比较器和数据输入的数量都在本文中进行了研究,以显示这些因素如何影响更大的神经形态交叉杆。此外,研究表明,神经网络可以有效地训练基于无源忆阻器的交叉栅,而不必像以前的工作那样使用虚拟地模式运算放大器。与虚拟地设计相比,这将电路所需的晶体管数量减少了约3倍,并将电路功耗降低了约50倍。本研究的关键影响是通过低电平电路模拟证明了密集忆阻交叉栅可以有效地用于构建神经形态处理器。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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