魔法非门在我的门内

Hongchang Long, Xi Zhu, Zhiwei Li, Jietao Diao, Haijun Liu, Qingjiang Li
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引用次数: 0

摘要

基于忆阻器的内存计算在突破冯·诺伊曼瓶颈和开发高效计算系统方面引起了人们极大的兴趣。基于忆阻器的逻辑门是实现这一目标的重要组成部分之一。近年来,人们提出了许多实现布尔函数的方法。例如材料暗示(IMPLY)和记忆电阻辅助逻辑(MAGIC)。MAGIC NAND门可以作为一个独立的逻辑,而不是放置在交叉栅阵列中。然而,为了设计更多的电路,实现更多的功能,不可避免地要将其描述在一个横杆阵列中。因此,我们使用由忆阻器和晶体管(1T1R)组成的4*3阵列来模拟交叉栅阵列中的MAGIC NAND门。并推导了施加电压与阈值电压之间的数学关系。此外,我们验证了阵列内的NAND逻辑,并实现了矢量NAND计算。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
MAGIC NAND within NOR gate
In-memory computing based on memristor has attracted significant interest for breaking the von Neumann bottleneck and developing high-efficient computing systems. Memristor-based logic gate is one of the most important part to achieve our goals. Recently, there are many methods which have been presented to achieve Boolean functions. Such as material implication (IMPLY) and memristor-aided logic (MAGIC). MAGIC NAND gate can be used as a standalone logic which is not placed within a crossbar array. However, it's unavoidable to describe it within a crossbar array in order to design more circuits which can achieve more functions. So we use a 4*3 array which consists of memristors and transistors (1T1R) to simulate MAGIC NAND gate within a crossbar array. And we deduce the mathematical relationship between the applied voltage and the threshold voltage. Furthermore, we have verified NAND logic within the array and implemented vector NAND computation.
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