Understanding of GPU Architectural Vulnerability for Deep Learning Workloads

Danny Santoso, Hyeran Jeon
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引用次数: 2

Abstract

Deep learning has proved its effectiveness for various problems including object detection, speech recognition, stock price forecasting and so on. Among various accelerators, GPU is one of the most favorable platforms for deep learning that provides faster neuron processing with massive parallelism. Recently, there have been extensive studies for better performance and power consumption of deep learning computing. However, reliability of deep learning has not been thoroughly studied yet. Though there have been a few studies that evaluated reliability of GPU architectures for general-purpose applications, there have not been many studies that showed the architectural vulnerability (AVF) of core algorithms and optimization techniques of deep learning workloads. In this paper, we evaluate AVF of GPU architectures while running various deep learning workloads and provide in-depth analysis by comparing the AVF of deep learning workloads and the other GPU applications. We also provide the reliability impact of various optimization techniques of deep learning workloads.
深度学习工作负载下GPU架构漏洞的理解
深度学习已经在目标检测、语音识别、股票价格预测等各种问题上证明了它的有效性。在各种加速器中,GPU是深度学习最有利的平台之一,它提供了更快的神经元处理速度和大量并行性。近年来,人们对深度学习计算的性能和功耗进行了广泛的研究。然而,深度学习的可靠性还没有得到深入的研究。虽然有一些研究评估了通用应用的GPU架构的可靠性,但显示核心算法和深度学习工作负载优化技术的架构漏洞(AVF)的研究并不多。在本文中,我们评估了GPU架构在运行各种深度学习工作负载时的AVF,并通过比较深度学习工作负载和其他GPU应用程序的AVF提供了深入的分析。我们还提供了各种优化技术对深度学习工作负载的可靠性影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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