PN-TMS: Pruned Node-fusion Tree-based Multicast Scheme for Efficient Neuromorphic Systems

Ziyang Shen, Chaoming Fang, Fengshi Tian, Jie Yang, M. Sawan
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Abstract

A growing demand for low-power and real-time computation is motivating the development of dedicated neuromorphic processors. To maximize scalability and power efficiency, multicore architecture has been broadly applied in existing neuromorphic processors. Nevertheless, mapping a Spiking Neural Network (SNN) on a multicore architecture requires a lot of multicast operations. Conventional routing algorithms like path-based routing and dimension order routing (DOR) lead to a severe overhead in both latency and power. To address these limitations, we propose a novel routing algorithm named Pruned Node-fusion Tree-based Multicast Scheme (PN-TMS). PN-TMS leverages multiple algorithms for route planning, optimizing latency and power simultaneously. Experiment results show that PN-TMS outperforms existing network processors’ routing schemes in terms of both energy consumption and latency, achieves an average energy delay product (EDP) reduction of 38.9%.
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高效神经形态系统中基于修剪节点融合树的组播方案
对低功耗和实时计算的日益增长的需求正在推动专用神经形态处理器的发展。为了最大限度地提高可扩展性和功耗效率,多核架构已广泛应用于现有的神经形态处理器中。然而,在多核架构上映射峰值神经网络(SNN)需要大量的多播操作。传统的路由算法,如基于路径的路由和维度顺序路由(DOR)会导致严重的延迟和功耗开销。为了解决这些限制,我们提出了一种新的路由算法,称为基于修剪节点融合树的多播方案(PN-TMS)。PN-TMS利用多种算法进行路由规划,同时优化延迟和功率。实验结果表明,PN-TMS在能量消耗和延迟方面都优于现有网络处理器的路由方案,平均能量延迟乘积(EDP)降低38.9%。
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