STDP Design Trade-offs for FPGA-Based Spiking Neural Networks

Rafael Medina Morillas, P. Ituero
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Abstract

The rise of popularity of Spiking Neural Networks has resulted in a growing interest for simulating synaptic plasticity. Among the existing choices, Spike-Timing-Dependent Plasticity (STDP) represents a reliable solution whose main weakness consists on its high computational cost. This paper proposes several high-frequency FPGA architectures for the realization of pair-based STDP. It also presents a comparison between these implementations and previous ones, and analyzes the compromise between area utilization and precision. We also suggest a SNN architecture capable of implementing in-board STDP learning. The results show that our proposals achieve high throughput and maximum frequencies starting at 400MHz, with a reasonable area utilization and precision loss. The wide range of presented designs makes this work valuable for the decision-taking process in the design and implementation of large scale SNN with different area and precision requirements.
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基于fpga的脉冲神经网络的STDP设计权衡
随着脉冲神经网络的流行,人们对模拟突触可塑性的兴趣越来越大。在现有的选择中,峰值时间相关塑性(STDP)是一种可靠的解决方案,但其主要缺点是计算成本高。本文提出了几种实现基于对的STDP的高频FPGA架构。并将这些实现与以前的实现进行了比较,分析了面积利用率和精度之间的折衷。我们还提出了一种能够实现板内STDP学习的SNN架构。结果表明,我们的方案实现了高吞吐量和从400MHz开始的最大频率,并具有合理的面积利用率和精度损失。所提出的广泛设计使得这项工作对于具有不同面积和精度要求的大规模SNN的设计和实施决策过程具有价值。
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