Research on Real-Time Anomaly Detection of Fishing Vessels in a Marine Edge Computing Environment

Fishing vessel monitoring systems (VMSs) play an important role in ensuring the safety of fishing vessel operations. Traditional VMSs use a cloud centralized computing model, and the storage, processing, and visualization of all fishing vessel data are completed in the monitoring center. Due to the...

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Main Authors: Jie Huang, Fengwei Zhu, Zejun Huang, Jian Wan, Yongjian Ren
Format: Article
Language:English
Published: Hindawi Limited 2021-01-01
Series:Mobile Information Systems
Online Access:http://dx.doi.org/10.1155/2021/5598988
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spelling doaj-a9a32aeb22d6497cb775a8837f84f8632021-07-02T21:01:51ZengHindawi LimitedMobile Information Systems1875-905X2021-01-01202110.1155/2021/5598988Research on Real-Time Anomaly Detection of Fishing Vessels in a Marine Edge Computing EnvironmentJie Huang0Fengwei Zhu1Zejun Huang2Jian Wan3Yongjian Ren4School of Information and Electronic EngineeringSchool of Computer Science and TechnologySchool of Computer Science and TechnologySchool of Information and Electronic EngineeringSchool of Computer Science and TechnologyFishing vessel monitoring systems (VMSs) play an important role in ensuring the safety of fishing vessel operations. Traditional VMSs use a cloud centralized computing model, and the storage, processing, and visualization of all fishing vessel data are completed in the monitoring center. Due to the limitation of maritime communications, the data generated by fishing vessels cannot be fully utilized, and communication delays lead to inadequate warnings in cases of fishing vessel abnormalities. In this paper, we present a real-time anomaly detection model (RADM) for fishing vessels based on edge computing. The model runs in the edge layer, making full use of the information of moving edge nodes and nearby nodes, and combines a historical trajectory extraction detection model with an online anomaly detection model to detect anomalies. The detection model of historical trajectory extraction mines frequent patterns in historical trajectories through multifeature clustering and identifies trajectories that are different from the frequent patterns as anomalies. Online anomaly detection algorithms detect anomalous behavior in specific scenarios based on the spatiotemporal neighborhood similarity and reduce the impact of anomaly evolution. Experiments show that RADM was more effective than traditional methods in real-time anomaly detection of fishing vessels, which provides a new method for upgrading the technology of traditional VMS.http://dx.doi.org/10.1155/2021/5598988
collection DOAJ
language English
format Article
sources DOAJ
author Jie Huang
Fengwei Zhu
Zejun Huang
Jian Wan
Yongjian Ren
spellingShingle Jie Huang
Fengwei Zhu
Zejun Huang
Jian Wan
Yongjian Ren
Research on Real-Time Anomaly Detection of Fishing Vessels in a Marine Edge Computing Environment
Mobile Information Systems
author_facet Jie Huang
Fengwei Zhu
Zejun Huang
Jian Wan
Yongjian Ren
author_sort Jie Huang
title Research on Real-Time Anomaly Detection of Fishing Vessels in a Marine Edge Computing Environment
title_short Research on Real-Time Anomaly Detection of Fishing Vessels in a Marine Edge Computing Environment
title_full Research on Real-Time Anomaly Detection of Fishing Vessels in a Marine Edge Computing Environment
title_fullStr Research on Real-Time Anomaly Detection of Fishing Vessels in a Marine Edge Computing Environment
title_full_unstemmed Research on Real-Time Anomaly Detection of Fishing Vessels in a Marine Edge Computing Environment
title_sort research on real-time anomaly detection of fishing vessels in a marine edge computing environment
publisher Hindawi Limited
series Mobile Information Systems
issn 1875-905X
publishDate 2021-01-01
description Fishing vessel monitoring systems (VMSs) play an important role in ensuring the safety of fishing vessel operations. Traditional VMSs use a cloud centralized computing model, and the storage, processing, and visualization of all fishing vessel data are completed in the monitoring center. Due to the limitation of maritime communications, the data generated by fishing vessels cannot be fully utilized, and communication delays lead to inadequate warnings in cases of fishing vessel abnormalities. In this paper, we present a real-time anomaly detection model (RADM) for fishing vessels based on edge computing. The model runs in the edge layer, making full use of the information of moving edge nodes and nearby nodes, and combines a historical trajectory extraction detection model with an online anomaly detection model to detect anomalies. The detection model of historical trajectory extraction mines frequent patterns in historical trajectories through multifeature clustering and identifies trajectories that are different from the frequent patterns as anomalies. Online anomaly detection algorithms detect anomalous behavior in specific scenarios based on the spatiotemporal neighborhood similarity and reduce the impact of anomaly evolution. Experiments show that RADM was more effective than traditional methods in real-time anomaly detection of fishing vessels, which provides a new method for upgrading the technology of traditional VMS.
url http://dx.doi.org/10.1155/2021/5598988
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AT zejunhuang researchonrealtimeanomalydetectionoffishingvesselsinamarineedgecomputingenvironment
AT jianwan researchonrealtimeanomalydetectionoffishingvesselsinamarineedgecomputingenvironment
AT yongjianren researchonrealtimeanomalydetectionoffishingvesselsinamarineedgecomputingenvironment
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