Investigation of DW Spintronic Memristor performance in 2T1M Neuromorphic Synapse

Yasmin K. Abdelmagid, Renad T. Nawar, Mennatullah K. Rabie, Ahmed S. Tulan, Ahmed H. Hassan, Andoleet Saleh, H. Mostafa
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Abstract

Memristor, the two-terminal memory-resistance device discovered by Chua in 1971, is a promising solution for future processing problems. Its CMOS integration compatibility and large resistance in small size, makes it very successful candidate for large-scale systems like Neural Networks. In last decade, memristors were used in many Neuromorphic Synapses for its advantage of combining processing (dot-product) and memory in same device. There are different materials that can be used to fabricate memristors. In this paper, a comparison between spintronic and TiO2-resistive memristor in two-transistors-one memristor synapse, is introduced. The work was done on Cadence Virtuoso with using Verilog-A for memristor modeling. The comparison reveals that the synaptic implementation with a spintronic memristor is more efficient when high speed is needed. However, the resistive memristor is more adequate due to its lower power dissipation.
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DW自旋电子忆阻器在2T1M神经形态突触中的性能研究
忆阻器是Chua于1971年发现的双端记忆电阻器件,是解决未来处理问题的一个有希望的解决方案。它具有CMOS集成兼容性和小尺寸的大电阻,使其成为神经网络等大型系统的成功候选者。近十年来,忆阻器以其在同一器件内将处理(点积)和存储相结合的优点,在许多神经形态突触中得到了应用。有不同的材料可用于制造忆阻器。本文介绍了双晶体管-单忆阻突触中自旋电子忆阻器与二氧化钛电阻式忆阻器的比较。这项工作是在Cadence Virtuoso上完成的,使用Verilog-A进行忆阻器建模。比较表明,当需要高速时,使用自旋电子忆阻器的突触实现效率更高。然而,电阻式忆阻器由于其较低的功耗而更合适。
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