用于容错深度神经网络架构的在线加速框架

N. Khoshavi, A. Roohi, Connor Broyles, S. Sargolzaei, Yu Bi, D. Pan
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引用次数: 16

摘要

我们提出了SHIELDeNN,这是一个端到端推理加速器框架,它协同了缓解方法和计算资源,以实现低开销的容错神经网络(NN)覆盖。我们开发了一个严格的故障评估范式来描绘一个真实的断层骨架图,以揭示神经网络中最脆弱的参数。给出了函数的易出错参数和资源约束,以寻找最佳设计。SHIELDeNN提供的容错幅度可以根据给定的边界进行调整。对于目标重量层和激活层的100个mbu, SHIELDeNN方法将cnvW1A1的容错幅度分别提高了17.19%和96.15%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
SHIELDeNN: Online Accelerated Framework for Fault-Tolerant Deep Neural Network Architectures
We propose SHIELDeNN, an end-to-end inference accelerator frame-work that synergizes the mitigation approach and computational resources to realize a low-overhead error-resilient Neural Network (NN) overlay. We develop a rigorous fault assessment paradigm to delineate a ground-truth fault-skeleton map for revealing the most vulnerable parameters in NN. The error-susceptible parameters and resource constraints are given to a function to find superior design. The error-resiliency magnitude offered by SHIELDeNN can be adjusted based on the given boundaries. SHIELDeNN methodology improves the error-resiliency magnitude of cnvW1A1 by 17.19% and 96.15% for 100 MBUs that target weight and activation layers, respectively.
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