Ultra Low Latency Machine Learning for Scientific Edge Applications

Narasinga Rao Miniskar, Aaron R. Young, Frank Liu, W. Blokland, A. Cabrera, J. Vetter
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引用次数: 1

Abstract

In this paper, we present an FPGA design of an extremely low latency scientific machine learning application at the edge. Real-time prediction of errant high-energy particle beams at scientific facilities such as Spallation Neutron Source (SNS) is crucial to avoid damages to the equipment. Machine learning techniques are becoming increasingly effective to detect subtle signatures of the errant beams in the noisy sensor signals. However, to minimize potential damage done by errant beam, real-time errant beam detection has to be completed with extremely low latency, usually less than 1 microsecond. By stream processing the input features and employing out-of-order execution of decision nodes among the decision trees, we demonstrate that our highly efficient FPGA implementation can achieve 60 nanoseconds of computing latency for complex random forest models with 10,000 input features.
用于科学边缘应用的超低延迟机器学习
在本文中,我们提出了一个极低延迟的边缘科学机器学习应用的FPGA设计。在诸如散裂中子源(SNS)这样的科学设施中,实时预测高能粒子束的错误是避免设备损坏的关键。机器学习技术在检测噪声传感器信号中错误光束的细微特征方面变得越来越有效。然而,为了最大限度地减少错误光束造成的潜在损害,必须以极低的延迟完成实时错误光束检测,通常小于1微秒。通过流处理输入特征并在决策树中采用无序执行决策节点,我们证明了我们的高效FPGA实现可以为具有10,000个输入特征的复杂随机森林模型实现60纳秒的计算延迟。
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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