Introduction to the Special Issue on Artificial Intelligence and Cyber-Physical Systems - Part 2

J. Hu, Qinhua Zhu, Susmit Jha
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引用次数: 0

Abstract

low-latency monitoring, out-of-distribution detection, and preventive maintenance.In “Fog-supported Low Latency Monitoring of System Disruptions in Industry 4.0: A Federated Learning Approach” , Sahnoun et al. designed a new monitoring tool for system disruption related to the localization of mobile resources. In “Efficient Out-of-Distribution Detection Using Latent Space of β -VAE for Cyber-Physical Systems” , Ramakrishna et al. tackled the problem that the sampled observations used for training the model may never cover the entire state space of the physical environment, and as a result, the system will likely operate in conditions that do not belong to the training distribution. These conditions that do not belong to training distribution are referred to as Out-of-Distribution (OOD) . Detecting OOD conditions at runtime is critical for the safety of CPS. The authors proposed an approach to design and train a single β -Variational Autoencoder de-tector with a partially disentangled latent space sensitive to variations in image features to detect OOD images and identify the most likely feature(s) responsible for the OOD. In “A Hybrid Deep Learning Framework for Intelligent Predictive Maintenance of Cyber-Physical Systems” , Sai et al. proposed a practical and effective hybrid deep learning multi-task framework, which integrates the advantages of convolutional neural network (CNN) and long short-term memory (LSTM) neural network, to reflect the relatedness of remaining useful life prediction with health status detection process in the CPS environment. The proposed framework can provide strong support for the health management and maintenance strategy development of complex multi-object systems.
人工智能和网络物理系统特刊导论-第二部分
低延迟监视、分发外检测和预防性维护。在“工业4.0中雾支持的低延迟系统中断监测:一种联邦学习方法”中,Sahnoun等人设计了一种新的监测工具,用于与移动资源本地化相关的系统中断。在“利用β -VAE潜在空间进行网络物理系统的有效分布外检测”中,Ramakrishna等人解决了用于训练模型的采样观测可能永远不会覆盖物理环境的整个状态空间的问题,因此,系统可能会在不属于训练分布的条件下运行。这些不属于培训分布的情况被称为分布外(OOD)。在运行时检测OOD状况对CPS的安全性至关重要。作者提出了一种设计和训练单个β变分自编码器检测器的方法,该检测器具有部分解纠缠的潜在空间,对图像特征的变化敏感,用于检测OOD图像并识别最可能导致OOD的特征。在“网络物理系统智能预测维护的混合深度学习框架”中,Sai等人提出了一种实用有效的混合深度学习多任务框架,该框架融合了卷积神经网络(CNN)和长短期记忆(LSTM)神经网络的优势,以反映CPS环境下剩余使用寿命预测与健康状态检测过程的相关性。该框架可为复杂多目标系统的健康管理和维护策略的制定提供强有力的支持。
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