When Neural Architecture Search Meets Hardware Implementation: from Hardware Awareness to Co-Design

Xinyi Zhang, Weiwen Jiang, Yiyu Shi, J. Hu
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引用次数: 24

Abstract

Neural Architecture Search (NAS), that automatically identifies the best network architecture, is a promising technique to respond to the ever-growing demand for application-specific Artificial Intelligence (AI). On the other hand, a large number of research efforts have been put on implementing and optimizing AI applications on the hardware. Out of all leading computation platforms, Field Programmable Gate Arrays (FPGAs) stand out due to its flexibility and versatility over ASICs and its efficiency over CPUs and GPUs. To identify the best neural architecture and hardware implementation pair, a number of research works are emerging to involve the awareness of hardware efficiency in the NAS process, which is called "hardware-aware NAS". Unlike the conventional NAS with a mono-criteria of accuracy, hardware-aware NAS is a multi-objective optimization problem, which aims to identify the best network and hardware pair to maximize accuracy with guaranteed hardware efficiency. Most recently, the co-design of neural architecture and hardware has been put forward to further push forward the Pareto frontier between accuracy and efficiency trade-off. This paper will review and discuss the current progress in the neural architecture search and the implementation on hardware.
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当神经架构搜索遇到硬件实现:从硬件感知到协同设计
自动识别最佳网络架构的神经架构搜索(NAS)是一种有前途的技术,可以响应对特定应用人工智能(AI)日益增长的需求。另一方面,在硬件上实现和优化人工智能应用已经投入了大量的研究工作。在所有领先的计算平台中,现场可编程门阵列(fpga)因其在asic上的灵活性和多功能性以及在cpu和gpu上的效率而脱颖而出。为了确定最佳的神经网络架构和硬件实现对,许多研究工作正在兴起,涉及到NAS过程中硬件效率的意识,这被称为“硬件感知NAS”。与传统NAS的单一精度标准不同,硬件感知NAS是一个多目标优化问题,其目的是在保证硬件效率的情况下,识别最佳的网络和硬件对,以实现最大的精度。最近,人们提出了神经网络架构和硬件的协同设计,以进一步推进精度和效率权衡之间的帕累托边界。本文将回顾和讨论神经结构搜索和硬件实现的最新进展。
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