在2.5ns ppm时间和1012续航时间的纯逻辑FinFET平台上构建理想线性神经形态突触的新架构

E. Hsieh, H. Chang, S. Chung, T. P. Chen, S. A. Huang, T. J. Chen, O. Cheng, S. Wong
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引用次数: 1

摘要

在这项工作中,我们将探索纯逻辑FinFET器件来实现线性权值调谐能力作为电突触的功能。这种新型FinFET突触的单元胞由两个相同的FinFET串联而成;一个作为控制,另一个作为存储。这种新的FinFET突触具有理想的线性,几乎具有无限的训练周期$(> 10^{12})$,编程电压低得多,为0.85V,速度更快,为2.5ns。它也可以类似地增加或减少晶体管的$\text{v}_{\text{th}}$来改变漏极电导。就模拟性能而言,它具有出色的线性度和宽调谐窗口(20倍)的权重调谐能力。还设计了LKB突触阵列。仿真结果表明,新型FinFET突触阵列可以将阵列尺寸扩展到64×64,信噪比是RRAM阵列的300倍。最后,基于所提出的FinFET突触的神经网络训练准确率达到97.43%,与GPU训练准确率相当。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Novel Architecture to Build Ideal-linearity Neuromorphic Synapses on a Pure Logic FinFET Platform Featuring 2.5ns PGM-time and 1012 Endurance
In this work, we will explore pure logic FinFET devices to realize the functionality of linear weight tuning capability as electric synapses. The unit cell of this new FinFET synapse is composed of two identical FinFETs in series; one serves as control and the other one as storage. This new FinFET synapse exhibits ideal linearity with nearly infinity training cycles $(> 10^{12})$, much lower programming voltage, 0.85V, and faster speed, 2.5ns. It can also analogically increase or decrease the transistor's $\text{v}_{\text{th}}$ to vary the drain conductance. As far as the analog performance is concerned, it performs excellent linearity and a wide tuning-window (20x) of weight-tuning capability. lkb synaptic array has also been designed. The spice-simulated results have shown that new FinFET synaptic array can expand the array-size to 64×64, exhibiting 300x of SNR, w.r.t. that of RRAM array. Finally, the training of the neural network based on the proposed FinFET synapse can achieve 97.43% accuracy as high as the GPU one does.
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