Computation Offloading From Edge to Equipment for Smart Manufacturing

H. H. Nguyen, Yi Zhou, K. Kushagra, Xiao Qin
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Abstract

In smart manufacturing, data management systems are built with a multi-layer architecture, in which the most significant layers are the edge and the cloud. The edge layer renders support to data analysis that genuinely demands low latency. Cloud platforms store vast amounts of data while performing extensive computations such as machine learning and big data analysis. This type of data management system has a limitation rooted in the fact that all data needs to be transferred from the equipment layer to the edge layer in order to perform all data analyses. Even worse, data transferring adds delays to computation processes in smart manufacturing. We investigate an offloading strategy to shift a selection of computation tasks towards the equipment layer. Our computation offloading mechanism opts for smart manufacturing tasks that are not only light weight but also have no need to save data at the edge/cloud end. In our empirical study, we demonstrate that the edge layer can judiciously offload computing tasks to the equipment layer, which curtails computing latency and slashes the amount of transferred data during smart manufacturing process. Our experimental results confirm that our offloading strategy offers the capability for data analysis computing in real-time at the equipment level- an array of smart devices is slated to speed up the data analysis process in semiconductor manufacturing.
智能制造中从边缘到设备的计算卸载
在智能制造中,数据管理系统采用多层架构构建,其中最重要的层是边缘和云。边缘层为真正需要低延迟的数据分析提供支持。云平台存储大量数据,同时进行大量计算,如机器学习和大数据分析。这种类型的数据管理系统的局限性在于,为了执行所有数据分析,所有数据都需要从设备层传输到边缘层。更糟糕的是,数据传输增加了智能制造计算过程的延迟。我们研究了一种卸载策略,将选择的计算任务转移到设备层。我们的计算卸载机制选择智能制造任务,不仅重量轻,而且不需要在边缘/云端保存数据。在我们的实证研究中,我们证明了边缘层可以明智地将计算任务卸载到设备层,从而减少了计算延迟并减少了智能制造过程中传输的数据量。我们的实验结果证实,我们的卸载策略提供了在设备级实时数据分析计算的能力-一系列智能设备将加速半导体制造中的数据分析过程。
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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