Cona Shi, Sihao Chen, Haibina Wana, Zhenaaina Zhona, P. Li, Junxian He, Tengxiao Wang, Jianyi Yu, Min Tian
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引用次数: 1
摘要
对于边缘智能应用,本工作提出了一个嵌入高速片上突触可塑性的微小神经形态硬件核心,采用所提出的时间集成神经元模型和简化的监督spike驱动的片上学习突触可塑性规则。所提出的硬件核心在极低成本的Zybo Zynq-7010 FPGA器件上进行了原型设计,并在许多数据集上获得了相当高的分类精度(例如在MNIST上的90.4%),学习和推理速度分别高达11,268和11,749 f $r$ ame/s,而在250 MHz时钟频率下仅消耗39 mW功率。
For edge intelligent applications, this work proposes a tiny neuromorphic hardware core embedding high-speed on-chip synaptic plasticity, by adopting the proposed Temporal-Integrate neuron model and a simplified supervised spike-driven synaptic plasticity rule for on-chip learning. The proposed hardware core was prototyped on a very-low-cost Zybo Zynq-7010 FPGA device, and attained comparably high classification accuracies on many datasets (e.g. 90.4% on MNIST), with a learning and inference speed as high as 11,268 and 11,749 f $r$ ame/s, respectively, while dissipating only 39 mW power under a 250 MHz clock frequency.