Research on Cable Surface Condition Sensing Technology Based on High-Precision Array Flexible Sensing Units
DOI: https://doi.org/10.62517/jike.202404405
Author(s)
Cheng Wang, Xian Cao
Affiliation(s)
State Grid Hubei Electric Power Co., Ltd. Huangshi Power Supply Co., Huangshi, Hubei, China
Abstract
This study introduces a novel cable surface condition sensing technology that employs a high-precision array of flexible sensing units to detect minor changes such as deformation, pressure, and damage on the cable surface in real-time. The manufacturing process of the flexible capacitive tactile sensors, including the preparation of PVDF films and the assembly of Ni-PU films, was elaborated. The experimental results demonstrated the sensor's rapid response and high sensitivity, meeting the requirements for cable surface state monitoring. The innovation of this paper lies in its comprehensive and real-time monitoring capability, which is crucial for early warning and health surveillance of cable damage, thereby enhancing the intelligent and detailed management of power systems. The original contribution is the application of flexible sensing arrays for early detection and health monitoring of cable damage, providing significant support for cable maintenance and replacement decisions.
Keywords
Cable Surface Condition; Flexible Sensing Units; High-Precision Monitoring; Intelligent Tactile Sensing
References
[1]Chen Konghua, Fu Zhenxing. Analysis of Test Methods and Detection Technologies for High-Voltage Power Cables. Mass Standardization, 2024, (18): 172-174.
[2]Zheng Yuxiang, Yang Jinye, Zhang Runjun, Dong Chenye, Yuan Haoyue. Analysis of Operation and Maintenance Technologies Based on Power Cable Lines. Technology Wind, 2024, (12): 67-69.
[3]Zhang Jing, Liu Zhiqi, Li Wenju. Experimental Study on the Preparation and Electrical Characteristics of Flexible Pressure Sensors. Laboratory Science, 2024, 27(05): 36-40.
[4]Li Luhong, Luo Tian, Cong Honglian. Design and Performance of Knitted Integral Capacitive Sensors. Journal of Textile Research, 2024, 45 (10): 80-88.
[5]Zhao Hang, Li Yang, Hou Lin, Zhang Jinglong. Preparation and Performance of KNbO3/PVDF/Cotton Fabric Piezoelectric Sensors. Synthetic Fiber, 2024, 53 (09): 85-91.
[6]Yang Ying, Liang Hai'an, Zhang Zizhen, et al. Experimental Teaching Design for Material Mechanics Based on Torsion-Twist and Pure Torsion Test Benches. Neijiang Science & Technology, 2023, 44(08): 38-40.
[7]Yuan Jingbin, Wang Gao, Xue Hongxin, Li Zhiling, Liu Yundong, Huang Manguo. Research on Dynamic Calibration of Thin-Film Thermal Flow Sensors on Curved Structures. Sensors and Microsystems, 2023, 42 (11): 46-49.
[8]Li Guang, Kong Feifei, Wang Xiaoyao, Du Fuzhou, Liu Lianxi. Research on Mobile Intelligent Detection Technology for Assembly Process Quality Based on Multi-Visual Sensor Fusion. Modern Manufacturing Engineering, 2023, (04): 116-123.
[9]Liu Jian, Liu Ping, Tang Xinyue, Wang Rui, Teng Fei, Huang Houzhu. Research on Flexible Pressure Sensors Based on Conductive Rubber Filled Sponges. Sensors and Microsystems, 2024, 43 (10): 59-62.
[10]Ren Meng, Chen Yuyue, Zhang Desuo, Lin Hong. Preparation and Performance Study of Wearable Resistive Flexible Pressure Sensors Based on rGO/PDMS. Textile Herald, 2022, (06): 92+94-96.