面向智能制造的智能互联工人边缘平台:第2部分:实施和现场部署案例研究

Richard P. Donovan, Yoon G. Kim, Anthony Manzo, Yutian Ren, Shijie Bian, Tongzi Wu, Shweta Purawat, Henry Helvajian, Marilee Wheaton, Bingbing Li, Guann-Pyng Li
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引用次数: 2

摘要

在本文中,我们通过实施四个指导性的现实世界用例,描述了智能制造的智能互联工作者(SCW)边缘平台的具体部署,这些用例说明了人在智能制造范式中的作用,通过这种范式,可负担、可扩展、可访问和便携式(ASAP)信息技术(IT)获取数据并将数据上下文化为信息,以便传输到操作技术(OT)。例如,在半导体制造过程中,当工人与机器交互时,该平台捕获能源消耗与人类工作流程之间的关系,以提高能源生产率。该平台利用人类认知来识别异常机器行为,通过神经网络(NN)对系统故障进行根本原因分析,神经网络可以识别带有摄像头的工作人员的报警姿势。对于案例二,演示了用于状态监控和故障检测的智能装配线。机器学习(ML)模型用于识别系统状态,并通过人为干预识别故障场景。对于案例三,平台监控人机交互,对制造机器状态进行分类,以实现正确的操作和能源生产率。单个或集合的制造设备的内部能量状态是通过基于神经网络的算法确定的,该算法分解了与智能计量相关的信号,这些信号通常部署在制造设施中。这些方法从制造现场的总能量分布预测每台机器的实时能量分布。在案例四中,演示了一个由科学工作流引擎构建的软件定义传感器系统,用于将激光表面折射的数据上下文化,以便在增材制造钛合金的加工过程中进行表征和诊断。
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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Smart connected worker edge platform for smart manufacturing: Part 2—Implementation and on-site deployment case study

In this paper, we describe specific deployments of the Smart Connected Worker (SCW) Edge Platform for Smart Manufacturing through implementation of four instructive real-world use cases that illustrate the role of people in a Smart Manufacturing paradigm through which affordable, scalable, accessible, and portable (ASAP) information technology (IT) acquires and contextualizes data into information for transmission to operation technologies (OT). For case one, the platform captures the relationships between energy consumption and human workflows for improved energy productivity while workers interact with machines during semiconductor manufacturing. The platform utilizes human cognition to identify anomalous machine behavior for root cause analysis of system faults via neural network (NN) that recognize alarm postures of workers with cameras. For case two, a smart assembly line is demonstrated for state monitoring and fault detection. Machine learning (ML) models are used to recognize system states and identify fault scenarios with human intervention. For case three, the platform monitors human–machine interactions to classify manufacturing machine states for proper operations and energy productivity. Internal energy states of individual or collections of manufacturing equipment are determined via NN based algorithms that disaggregate signals associated with smart metering typically deployed at manufacturing facilities. These methods predict the real time energy profile of each machine from the total energy profile of a manufacturing site. For case four, a software defined sensor system built with scientific workflow engines is demonstrated for contextualizing data from laser surface refraction for characterization, and diagnostics in the processing of additively manufactured titanium alloy.

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