OGDM: An Observability Guaranteed Distributed Edge Sensing Method for Industrial Cyber-Physical Systems

Shigeng Wang, Zhiduo Ji, Cailian Chen
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Abstract

The new generation of industrial cyber-physical systems (ICPS) supported by the edge computing technology enables efficient distributed sensing under massive data volumes and frequent transmissions. Observability is essential to obtain good sensing performance, and most of existing sensing works directly assume that the system is observable. However, it is difficult to satisfy the assumption with the increasingly expanded network scale and dynamic scheduling of devices. To solve this problem, we propose an observability guaranteed distributed method (OGDM) for edge sensing with the cooperation of sensors and edge computing units (ECUs). We analyze the relationship between sensor scheduling and observability based on the network topology and graph signal processing (GSP) technology. In addition, we transform the observability condition into a convex form and take into account sensing error and energy consumption for optimization. Finally, our algorithm is applied to estimate the slab temperature in the hot rolling process. The effectiveness is verified by simulation results.
OGDM:一种工业信息物理系统的可观测性保证分布式边缘感知方法
边缘计算技术支持的新一代工业网络物理系统(ICPS)能够在海量数据和频繁传输的情况下实现高效的分布式传感。可观测性是获得良好传感性能的必要条件,现有的传感工作大多直接假设系统是可观测的。然而,随着网络规模的不断扩大和设备的动态调度,这一假设已难以满足。为了解决这一问题,我们提出了一种传感器与边缘计算单元(ecu)合作的可观测性保证分布式边缘感知方法(OGDM)。基于网络拓扑和图信号处理(GSP)技术,分析了传感器调度与可观测性的关系。此外,我们将可观测性条件转化为凸形式,并考虑感知误差和能量消耗进行优化。最后,将该算法应用于热轧过程中板坯温度的估计。仿真结果验证了该方法的有效性。
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