Simulation and Experimental Analysis of Multi-Chamber Arc-Quenching Arresters (MCAA) for 10 kV Transmission Lines

Since conventional lightning protection measures do not effectively extinguish subsequent arcs of electrical frequency after the passage of lightning, it is impossible to prevent lightning-related accidents on the distribution lines. To solve this problem, a 10 kV multi-chamber arc-quenching arreste...

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Main Authors: Dong Wu, Zelin Ji, Jufeng Wang
Format: Article
Language:English
Published: MDPI AG 2021-09-01
Series:Energies
Subjects:
Online Access:https://www.mdpi.com/1996-1073/14/19/6185
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author Dong Wu
Zelin Ji
Jufeng Wang
author_facet Dong Wu
Zelin Ji
Jufeng Wang
author_sort Dong Wu
collection DOAJ
description Since conventional lightning protection measures do not effectively extinguish subsequent arcs of electrical frequency after the passage of lightning, it is impossible to prevent lightning-related accidents on the distribution lines. To solve this problem, a 10 kV multi-chamber arc-quenching arrester (MCAA) applicable to transmission lines of different voltage levels is developed. In order to research the arc-quenching characteristics of the MCAA, COMSOL software was used to simulate and analyze the high-speed airflow coupled arc process. Under the action of a strong airflow at high speed, the arc is segmented, the temperature of the arc falls sharply, and eventually, the arc is extinguished. In the simulation process, the conductivity of the arc and the clouds of change of air speed were achieved. It may be concluded that arc segmentation time and airflow generation time are at a subtle level. Meanwhile, an experimental circuit was established to conduct the arc-quenching experiment. A high-speed camera was used to observe the experimental process and the oscilloscope was used to record the arc-quenching waveform. The experimental results show that the MCAA had a good arc-extinguishing effect and that the arc was extinguished within 0.35 ms. The current amplitude of the frequency arc was 1.2 kA.
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spelling doaj.art-4be976dee68541f084eb98b09bd789962023-11-22T16:00:37ZengMDPI AGEnergies1996-10732021-09-011419618510.3390/en14196185Simulation and Experimental Analysis of Multi-Chamber Arc-Quenching Arresters (MCAA) for 10 kV Transmission LinesDong Wu0Zelin Ji1Jufeng Wang2Department of Mechanical and Control Engineering, Guilin University of Technology, Guilin 541000, ChinaDepartment of Mechanical and Control Engineering, Guilin University of Technology, Guilin 541000, ChinaThe Key Laboratory of High Voltage, Department of Electrical Engineering, Guangxi University, Nanning 530004, ChinaSince conventional lightning protection measures do not effectively extinguish subsequent arcs of electrical frequency after the passage of lightning, it is impossible to prevent lightning-related accidents on the distribution lines. To solve this problem, a 10 kV multi-chamber arc-quenching arrester (MCAA) applicable to transmission lines of different voltage levels is developed. In order to research the arc-quenching characteristics of the MCAA, COMSOL software was used to simulate and analyze the high-speed airflow coupled arc process. Under the action of a strong airflow at high speed, the arc is segmented, the temperature of the arc falls sharply, and eventually, the arc is extinguished. In the simulation process, the conductivity of the arc and the clouds of change of air speed were achieved. It may be concluded that arc segmentation time and airflow generation time are at a subtle level. Meanwhile, an experimental circuit was established to conduct the arc-quenching experiment. A high-speed camera was used to observe the experimental process and the oscilloscope was used to record the arc-quenching waveform. The experimental results show that the MCAA had a good arc-extinguishing effect and that the arc was extinguished within 0.35 ms. The current amplitude of the frequency arc was 1.2 kA.https://www.mdpi.com/1996-1073/14/19/6185lightning flashoverlightning tripping accidentsarc-quenchinglightning protectionhigh-speed airflowarc
spellingShingle Dong Wu
Zelin Ji
Jufeng Wang
Simulation and Experimental Analysis of Multi-Chamber Arc-Quenching Arresters (MCAA) for 10 kV Transmission Lines
Energies
lightning flashover
lightning tripping accidents
arc-quenching
lightning protection
high-speed airflow
arc
title Simulation and Experimental Analysis of Multi-Chamber Arc-Quenching Arresters (MCAA) for 10 kV Transmission Lines
title_full Simulation and Experimental Analysis of Multi-Chamber Arc-Quenching Arresters (MCAA) for 10 kV Transmission Lines
title_fullStr Simulation and Experimental Analysis of Multi-Chamber Arc-Quenching Arresters (MCAA) for 10 kV Transmission Lines
title_full_unstemmed Simulation and Experimental Analysis of Multi-Chamber Arc-Quenching Arresters (MCAA) for 10 kV Transmission Lines
title_short Simulation and Experimental Analysis of Multi-Chamber Arc-Quenching Arresters (MCAA) for 10 kV Transmission Lines
title_sort simulation and experimental analysis of multi chamber arc quenching arresters mcaa for 10 kv transmission lines
topic lightning flashover
lightning tripping accidents
arc-quenching
lightning protection
high-speed airflow
arc
url https://www.mdpi.com/1996-1073/14/19/6185
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AT jufengwang simulationandexperimentalanalysisofmultichamberarcquenchingarrestersmcaafor10kvtransmissionlines