9.5 5nm旗舰移动SoC中的6K-MAC特征映射稀疏感知神经处理单元

Jun-Seok Park, Jun-Woo Jang, Heonsoo Lee, Dongwook Lee, Sehwan Lee, Hanwoong Jung, Seungwon Lee, S. Kwon, Kyung-Ah Jeong, Joonho Song, Sukhwan Lim, Inyup Kang
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引用次数: 34

摘要

设备上的机器学习对于移动产品至关重要,因为它可以实现实时应用(例如人工智能相机应用),这些应用需要响应,始终可用(即不需要网络连接)和隐私保护。在这种情况下使用的平台具有有限的计算资源、能力和内存带宽。实现这种设备上的机器学习已经引发了高效神经网络加速器的广泛发展,与cpu等通用处理器相比,这些加速器承诺具有更高的能量和面积效率。支持广泛的神经网络的需求也很重要,因为深度学习领域正在迅速发展,如图9.5.1所示。神经网络加速器最近的工作集中在提高能源效率,同时获得高性能,以满足实时应用的需求。例如,在最近的加速器中已经部署了跳权和剪枝[2]-[7]。SIMD或基于收缩阵列的加速器[2]-[4],[6]提供了灵活性,以支持各种深度神经网络(DNN)模型的各种类型的计算。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
9.5 A 6K-MAC Feature-Map-Sparsity-Aware Neural Processing Unit in 5nm Flagship Mobile SoC
On-device machine learning is critical for mobile products as it enables real-time applications (e.g. AI-powered camera applications), which need to be responsive, always available (i.e. do not require network connectivity) and privacy preserving. The platforms used in such situations have limited computing resources, power, and memory bandwidth. Enabling such on-device machine learning has triggered wide development of efficient neural-network accelerators that promise high energy and area efficiency compared to general-purpose processors, such as CPUs. The need to support a comprehensive range of neural networks has been important as well because the field of deep learning is evolving rapidly as depicted in Fig. 9.5.1. Recent work on neural-network accelerators has focused on improving energy efficiency, while obtaining high performance in order to meet the needs of real-time applications. For example, weightzero-skipping and pruning have been deployed in recent accelerators [2] –[7]. SIMD or systolic array-based accelerators [2] –[4], [6] provide flexibility to support various types of compute across a wide range of Deep Neural Network (DNN) models.
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