基于纳秒开关时间器件的忆阻器SPICE模型及交叉棒仿真

C. Yakopcic, T. Taha, G. Subramanyam, R. Pino
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引用次数: 96

摘要

本文提出了一种忆阻器SPICE模型,该模型能够再现先前发表的忆阻器器件的电流-电压关系。与现有SPICE模型相比,该SPICE模型与各种已发布的设备数据显示出更强的相关性。此外,对已发表的开关时间为纳秒级的忆阻器器件的开关特性进行了建模。因此,该模型可以准确地模拟基于这些高速忆阻器的神经系统。本文还演示了如何使用该模型精确计算这些高速器件的开关能量,从而在基于忆阻器的神经系统中更精确地计算功率。忆阻交叉电路为开发非常高密度的神经分类器提供了一种潜在的方法。该模型能够模拟包含多达256个忆阻器的交叉电路。与现有的SPICE模型相比,在具有大量器件的纳秒切换状态下工作时,显著降低了引起收敛误差的可能性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Memristor SPICE model and crossbar simulation based on devices with nanosecond switching time
This paper presents a memristor SPICE model that is able to reproduce current-voltage relationships of previously published memristor devices. This SPICE model shows a stronger correlation to various published device data when compared to existing SPICE models. Furthermore, switching characteristics of published memristor devices with switching times in the nanosecond scale were modeled. Therefore, this model can be used to accurately simulate neural systems based on these high-speed memristors. This paper also demonstrates how this model can be used to accurately calculate switching energy of these high-speed devices, leading to more accurate power calculations in memristor based neural systems. Memristor crossbar circuits provide a potential method for developing very high density neural classifiers. This model was able to simulate crossbar circuits containing up to 256 memristors. It is significantly less likely to cause convergence errors when operating in the nanosecond switching regime with a large number of devices when compared with existing SPICE models.
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