location:Home > 2025 Vol.8 Aug.N04 > Application of Edge Computing in Real-Time Monitoring System for Industrial Electrotechnical Equipment

2025 Vol.8 Aug.N04

  • Title: Application of Edge Computing in Real-Time Monitoring System for Industrial Electrotechnical Equipment
  • Name: Ying Lang ,Leiguang Liu
  • Company: College of Aeronautical Engineering, Beijing Polytechnic University, Beijing 100176, China
  • Abstract:

    Conventional real-time monitoring systems for industrial electrotechnical equipment mostly rely on centralized architectures, and the lack of de-duplication of alarm information leads to a large amount of computation, which affects the monitoring accuracy of the system. In this regard, the application research of edge computing in real-time monitoring system of industrial electrical equipment is proposed. The AD7606 chip and signal conditioning circuit are used to realize three-phase electrical signal detection and environmental signal acquisition, the signal processing and control part is completed by the DSP chip to calculate the power quality parameters, the FPGA is responsible for the parallel acquisition and transmission of multi-sensor data, and the RAM enhances the data storage function to meet the real-time requirements. The transaction database is constructed by sliding window and discretization, and FP-tree is used to mine frequent itemsets and association rules, and predict the failure probability by combining real-time window and historical pattern similarity matching. Receive and classify equipment data at the edge node, and judge abnormalities by threshold and trend analysis for analog quantities, and compare actual and normal states for switching quantities. The Simhash algorithm is used to de-duplicate the alarm information, and the determination information is transmitted to the processing module for recording, realizing the remote monitoring and management of the equipment. In the experiment, the proposed method is verified for monitoring accuracy. It is clear from the test and comparison results that when the proposed system is used for real-time monitoring of equipment, the false alarm rate is mainly concentrated in the range of 1.0% - 2.0%, which has a more ideal monitoring effect.


  • Keyword: edge computing; industrial field; electrical equipment; real-time monitoring; system design;
  • DOI: 10.12250/jpciams2025090814
  • Citation form: Ying Lang,Leiguang Liu.Application of Edge Computing in Real-Time Monitoring System for Industrial Electrotechnical Equipment[J]. Computer Informatization and Mechanical System,2025,Vol.8,pp.59-63
Reference:

[1] Andukuri R , Rao C M .Application of Fuzzy CODAS for the Optimal Selection of Condition Monitoring Equipment in Industrial Rotating Machinery[J]. Operations Research Forum, 2024, 5(4):1-34.

[2] Ukiwe E K , Adeshina S A , Tsado J .Techniques of infrared thermography for condition monitoring of electrical power equipment[J]. Electrical Systems and Information Technology, 2023, 10(1):1-19.

[3] Ilyin Y A , Tishenko A A , Britvin S O ,et al.Design and Placement of Control and Measuring Equipment for Monitoring the Condition of Bateau Porte Structures and Dry Dock Foundation Plate[J].Power Technology and Engineering, 2023, 57(2):198-202.

[4] Du Y , Liu H , Li H ,et al.Exploring the initiating mechanism, monitoring equipment and warning indicators of gully-type debris flow for disaster reduction: a review[J].Natural Hazards, 2024, 120(15):13667-13692.

[5] Ybanez R S , Cruz A R D L .Related Literature Review 5D Model for Project and Operation/Maintenance Remote Monitoring of Equipment and Piping System[J]. .Journal Europeen des Systemes Automatises, 2023, 56(3):355-364.

[6] Shabunin A S , Chernetskii M Y , Osipovskii R V .Neural Network Models of Process Equipment in a Monitoring and Predictive Analytics System[J].Power Technology and Engineering, 2024, 58(1):147-154.

[7] Wang W , Song S , Tian Z ,et al.Design and application of equipment monitoring system for mineral processing laboratory based on image recognition technology[J].Experimental Technology and Management, 2023, 40(8):242-246.

[8] Zeng Q .Panoramic Intelligent Monitoring Technology of Power Equipment under New Power System Based on Machine Vision[J].journal of electrical journal of electrical systems, 2024, 20(9):684-690.

[9] Liu X , Xu Z , He T ,et al. Application of Spatiotemporal Data Prediction Method in Intelligent Monitoring System for Early Warning of Equipment Failure in Power Distribution Room[J]. in Power Distribution Room[J].Procedia Computer Science, 2025, 262:227-235.

[10] Azlan A T B N N , Mativenga P T , Zhu M ,et al. Industry 4.0 energy monitoring system for multiple production machines[J].Procedia CIRP, 2023, 120:613- 618.

[11] Mallia J , Francalanza E , Xuereb P ,et al.The development of a generic IIOT framework for an industrial pneumatic system[J].Procedia CIRP, 2024, 126 :277-282.

[12] Sun J , Meli E , Chi M ,et al.A novel measuring system for high-speed railway vehicles hunting monitoring able to predict wheelset motion and wheel/ rail contact characteristics[J].Vehicle System Dynamics, 2023, 61(6):1621-1643.

[13] Wang Q , Su G , Ma Q ,et al. Automatic Monitoring System for 3-D Deformation of Crustal Fault Based on Laser and Machine Vision[J]. 2024, 11(2):44-52.

[14] Yanov E S , Antsev A V , Vorotilin M S ,et al.New System for Indirect Tool Monitoring in Industrial Systems and Processes[J]. Research, 2024, 44(6):868-870.

[15] Wang Y .Research on Self Powered Industrial Vibration Monitoring and Abnormal Alarm System Based on Friction Nanogenerator and MEMS Technology[J]. .Procedia Computer Science, 2025, 262:666-674.  

 

 


Tsuruta Institute of Medical Information Technology
Address:[502,5-47-6], Tsuyama, Tsukuba, Saitama, Japan TEL:008148-28809 fax:008148-28808 Japan,Email:jpciams@hotmail.com,2019-09-16