S2N2: A FPGA Accelerator for Streaming Spiking Neural Networks

Alireza Khodamoradi, K. Denolf, R. Kastner
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引用次数: 28

Abstract

Spiking Neural Networks (SNNs) are the next generation of Artificial Neural Networks (ANNs) that utilize an event-based representation to perform more efficient computation. Most SNN implementations have a systolic array-based architecture and, by assuming high sparsity in spikes, significantly reduce computing in their designs. This work shows this assumption does not hold for applications with signals of large temporal dimension. We develop a streaming SNN (S2N2) architecture that can support fixed-per-layer axonal and synaptic delays for its network. Our architecture is built upon FINN and thus efficiently utilizes FPGA resources. We show how radio frequency processing matches our S2N2 computational model. By not performing tick-batching, a stream of RF samples can efficiently be processed by S2N2, improving the memory utilization by more than three orders of magnitude.
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S2N2:一种用于流脉冲神经网络的FPGA加速器
峰值神经网络(snn)是下一代人工神经网络(ann),它利用基于事件的表示来执行更有效的计算。大多数SNN实现都有一个基于收缩数组的体系结构,并且通过假设峰值具有高稀疏性,可以显著减少其设计中的计算量。这项工作表明,这一假设并不适用于大时间维度信号的应用。我们开发了一个流SNN (S2N2)架构,可以支持其网络的每层固定轴突和突触延迟。我们的架构建立在FINN之上,因此有效地利用了FPGA资源。我们展示了射频处理如何匹配我们的S2N2计算模型。由于不执行tick-batch, RF样品流可以通过S2N2有效地处理,从而将内存利用率提高三个数量级以上。
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