将动态稀疏性引入低功耗音频边缘计算的前沿:大脑启发的网络更新稀疏化方法

Shih-Chii Liu;Sheng Zhou;Zixiao Li;Chang Gao;Kwantae Kim;Tobi Delbruck
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引用次数: 0

摘要

动态稀疏性是生物计算的固有特性,也是其极高能效的关键所在。利用这一神经形态原理,边缘计算系统可以提高能效并减少响应延迟。用于提取声学特征的神经形态方法用混合信号电路中实现的生物耳蜗启发滤波器和事件发生器取代了传统的 ADC 和 DSP。由此产生的稀疏特征事件驱动动态稀疏感知神经网络加速器进行推理,以减少计算负荷和内存访问。边缘关键字定位演示显示了动态功耗节省。利用各级动态稀疏性将是设计边缘智能设备的下一步。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Bringing Dynamic Sparsity to the Forefront for Low-Power Audio Edge Computing: Brain-inspired approach for sparsifying network updates
Dynamic sparsity is intrinsic to biological computing and is key to its extreme power efficiency. Edge computing systems can improve their energy efficiency and reduce response latency by exploiting this neuromorphic principle. The neuromorphic approach for the extraction of acoustic features replaces conventional ADC and DSP with biological cochlea-inspired filters and event generators implemented in mixed-signal circuits. The resulting sparse feature events drive inference in dynamic-sparsity-aware neural network accelerators to reduce computational load and memory access. The demonstration of edge keyword spotting shows the dynamic savings in power. Exploiting dynamic sparsity at all levels will be the next step toward the design of intelligent devices for the edge.
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