A low power and low area mixed-signal neuronal cell for spiking neural networks

Carolina Raymond, Eric Gutierrez
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引用次数: 1

Abstract

We propose a simple neuronal cell for the implementation of low power and low area spiking neural networks. The neuronal cell mimics the performance of biological neural systems by combining both analog and digital circuits. This mixed-signal approach makes use of minimum-size sub-threshold biased devices. Additionally, conventional leaky integrate-and-fire model is simplified leading to smaller and simpler neuronal cells. The proposed cell is designed using a 50-nm CMOS node and its performance is validated by transient simulation. Power consumption and area are estimated, showing great potential in comparison to equivalent state-of-the-art solutions. Finally behavioral equations are proposed and matched to transient schematic simulations to make them available for future training tasks. The proposed neuronal cell attempts to become a suitable solution for ultra-low power smart devices with computing at the edge, such as wearables or remote sensors.
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一种用于尖峰神经网络的低功耗、低面积混合信号神经元细胞
我们提出了一种简单的神经元细胞来实现低功耗和低面积尖峰神经网络。神经细胞通过结合模拟电路和数字电路来模拟生物神经系统的性能。这种混合信号方法利用了最小尺寸的亚阈值偏置器件。此外,简化了传统的泄漏集成-发射模型,使神经元细胞更小、更简单。采用50 nm CMOS节点设计了该电池,并通过瞬态仿真验证了其性能。功耗和面积的估计,显示出巨大的潜力相比,同等的最先进的解决方案。最后提出了行为方程,并将其与瞬态原理图仿真相匹配,为今后的训练任务提供依据。提出的神经元细胞试图成为超低功耗智能设备的合适解决方案,在边缘计算,如可穿戴设备或远程传感器。
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