Distribution arrester failures caused by lightning current flowing from customer's structure into distribution lines

被引:5
|
作者
Nakada, K [1 ]
Wakai, T
Taniguchi, H
Kawabata, T
Yokoyama, S
Yokota, T
Asakawa, A
机构
[1] Hokuriku Elect Power Co, Toyama, Japan
[2] Cent Res Inst Elect Power Ind, Tokyo 201, Japan
关键词
lightning; distribution line; surge arrester; arrester failure;
D O I
10.1109/61.796250
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
Distribution arrester failures have been thought to be caused by direct or nearby lightning strokes. We have, however, found that distribution arrester failure is caused by part of the lightning current which flows into distribution lines when the customer's structure is struck by lightning. We call this current "lightning backflow current". In order to clarify the influence off lightning backflow current on arrester failure, we have conducted experimental and analytical studies and observed the distribution outages. The main results are as follows. (1) The calculated failure probability of an arrester caused by lightning backflow current in winter is almost equal to that caused by a direct lightning stroke to distribution lines. (2) According to the investigation of lightning-caused failures; about half of the arrester failures are due to lightning backflow current. (3) Lightning backflow current should be considered as one off the main causes of distribution arrester failures.
引用
收藏
页码:1527 / 1532
页数:6
相关论文
共 50 条
  • [41] Research on comprehensive protections of 10 kV overhead insulated distribution lines from lightning
    Henan Luohe Electric Power Company, Luohe 462001, China
    不详
    Gaodianya Jishu, 2008, 11 (2395-2399):
  • [42] Lightning protection of MEA's 24 kV distribution lines Using overhead ground wires
    Sestasombut, P.
    Ngaopitakkul, A.
    2017 IEEE INNOVATIVE SMART GRID TECHNOLOGIES - ASIA (ISGT-ASIA), 2017, : 793 - 797
  • [43] Direct Lightning Surge Analysis of Distribution Lines Considering LEMPs From Lightning Channel and Struck Pole in EMT Simulation
    Yamanaka, Akifumi
    Ishimoto, Kazuyuki
    Tatematsu, Akiyoshi
    IEEE TRANSACTIONS ON ELECTROMAGNETIC COMPATIBILITY, 2023, 65 (06) : 1909 - 1920
  • [44] A COMPARISON OF CURVES FOR DISTRIBUTION OF LIGHTNING-CURRENT AMPLITUDE FROM MEASUREMENTS IN DIFFERENT COUNTRIES
    SZPOR, S
    ELECTRICAL TECHNOLOGY, 1968, 2 : 124 - &
  • [45] Calculation of current distribution in a lightning stroked metal structure considering the non-linear ground impedance
    Buccella, C
    CONFERENCE RECORD OF THE 2001 IEEE INDUSTRY APPLICATIONS CONFERENCE, VOLS 1-4, 2001, : 2703 - 2708
  • [46] Research on Terminal Layout Method of Lightning Current Distributed Monitoring for Multi Branch 10kV Distribution Lines
    Feng, Ruifa
    Zhang, Yang
    Liao, Minchuan
    He, Xiaomeng
    Qu, Lu
    Li, Huapeng
    Li, Longgui
    Jin, Qingyuan
    He, Xinyi
    2022 12TH INTERNATIONAL CONFERENCE ON POWER AND ENERGY SYSTEMS, ICPES, 2022, : 184 - 189
  • [48] Neutral Point Overvoltages in Wye-Wye Connected Distribution Transformer Caused by Lightning Current in Low-Voltage Winding
    Gustavsen, Bjorn
    Longva, Karstein
    IEEE TRANSACTIONS ON POWER DELIVERY, 2021, 36 (05) : 2851 - 2860
  • [49] Application study on one-dimensional partial element equivalent circuits to lightning current distribution on surface structure
    Tong, Chen
    Huang, Yeyuan
    Li, Xinping
    Qiu, Shanliang
    Si, Xiaoliang
    Duan, Zemin
    Yan, Wei
    Yao, Ling
    JOURNAL OF ELECTROSTATICS, 2025, 134
  • [50] Direct lightning strikes to test power distribution lines - Part II: Measured and modeled current division among multiple arresters and grounds
    Schoene, Jens
    Uman, Martin A.
    Rakov, Vladimir A.
    Mata, Angel G.
    Mata, Carlos T.
    Rambo, Keith J.
    Jerauld, Jason
    Jordan, Douglas M.
    Schnetzer, George H.
    IEEE TRANSACTIONS ON POWER DELIVERY, 2007, 22 (04) : 2245 - 2253