An Overview of Energy-Efficient Hardware Accelerators for On-Device Deep-Neural-Network Training

Jinsu Lee;Hoi-Jun Yoo
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引用次数: 9

Abstract

Deep Neural Networks (DNNs) have been widely used in various artificial intelligence (AI) applications due to their overwhelming performance. Furthermore, recently, several algorithms have been reported that require on-device training to deliver higher performance in real-world environments and protect users’ personal data. However, edge/mobile devices contain only limited computation capability with battery power, so an energy-efficient DNN training processor is necessary to realize on-device training. Although there are a lot of surveys on energy-efficient DNN inference hardware, the training is quite different from the inference. Therefore, analysis and optimization techniques targeting DNN training are required. This article aims to provide an overview of energy-efficient DNN processing that enables on-device training. Specifically, it will provide hardware optimization techniques to overcomes the design challenges in terms of distinct dataflow, external memory access, and computation. In addition, this paper summarizes key schemes of recent energy-efficient DNN training ASICs. Moreover, we will also show a design example of DNN training ASIC with energy-efficient optimization techniques.
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用于设备上深度神经网络训练的节能硬件加速器综述
深度神经网络(DNN)由于其压倒性的性能,已被广泛应用于各种人工智能(AI)应用中。此外,最近有报道称,有几种算法需要设备上的培训,以在现实世界环境中提供更高的性能并保护用户的个人数据。然而,边缘/移动设备在电池供电的情况下仅具有有限的计算能力,因此需要一个节能的DNN训练处理器来实现设备上的训练。尽管有很多关于节能DNN推理硬件的调查,但训练与推理有很大不同。因此,需要针对DNN训练的分析和优化技术。本文旨在概述能够进行设备上训练的节能DNN处理。具体而言,它将提供硬件优化技术,以克服不同数据流、外部存储器访问和计算方面的设计挑战。此外,本文还总结了近年来节能DNN训练ASIC的关键方案。此外,我们还将展示一个使用节能优化技术的DNN训练ASIC的设计示例。
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