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首页 > 过刊浏览>2020年第35卷第1期 >157-162. DOI:10.19781/j.issn.16739140.2020.01.021
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110kV线路雷击闪络限制器安装方式对玻璃绝缘子电场分布的影响
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TM852

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国家自然科学基金（51577106）


Influence of flashover limiter’s installation position on electric field distribution of 110 kV glass insulator
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    摘要:

    110 kV线路雷击闪络限制器有2种典型安装方式：下放电电极位置低于圴压环和高于均压环，根据雷击闪络限制器的2种安装方式，建立110 kV同塔双回输电线路有限元计算模型，研究雷击闪络限制器的2种安装方式对玻璃绝缘子串和均压环电场分布的影响。结果表明，下放电电极低于均压环的安装方式降低了沿玻璃绝缘子串的电压及电场强度分布的均匀性，而下放电电极高于均压环的安装方式提高了沿玻璃绝缘子串的电压及电场强度分布的均匀性；雷击闪络限制器的2种安装方式均使均压环表面的电场强度有所减小。建议在玻璃绝缘子安装雷击闪络限制器时，使雷击闪络限制器下放电电极的位置高于圴压环。

    Abstract:

    110 kV flashover limiter has two kinds of installation method depending on the lower discharge electrode installed lower or higher than grading ring. In this paper, a finite element model is established for a 110 kV doublecircuit transmission line and the influence of installation type for the electric field distribution of glass insulator and grading ring is compared. It is shown that the lower electrode which is installed lower than the grading ring reduces the uniformity of electric field along the glass insulator, whereas the other installation method uniform the electric field along the glass insulator. Both two types of installation reduce the electric field at the outer surface of the grading ring. It is better that the lower discharge electrode is installed higher than grading ring when installing 110 kV flashover limiter on glass insulator.

    参考文献
    [1] 顾洪连,孙泽慧.玻璃绝缘子运行特性分析[J].电力建设,2000,21(11):4850.GU Honglian,SUN Zehui.Analysis on operation performance of glass insulators[J].2000,21(11):4850.
    [2] Taklaja P，Kiitam I，Niitsoo J，et al.Electric field distribution in glass and porcelain pin insulators[C]//2015 IEEE 15th International Conference on Environment and Electrical Engineering(EEEIC).Rome，Italy：IEEE，2015.
    [3] Fahmi D，Novario L A，Negara I M Y，et al.Comparative analysis of electric field distribution on glass and ceramic insulator using finite element method[C]//2016 International Seminar on Intelligent Technology and Its Applications(ISITIA).Lombok，Indonesia：IEEE，2016.
    [4] 黄道春,黄正芳,王国利,等.特高压交流输电线路瓷绝缘子串电位和均压环电场分布计算模型的简化[J].高电压技术,2012,38(9):21632170.HUANG Daochun,HUANG Zhengfang,WANG Guoli,et al.Calculation model simplification for porcelain insulator string potential and grading ring surface electric field distribution of UHV AC transmission line[J].High Voltage Engineering,2012,38(9):21632170.
    [5] 孙玉玮,陈辉,陈立贤,等.基于历史数据分析的输电线路状态研判技术研究[J].智慧电力,2019,47(1):8387+104.SUN Yuwei,CHEN Hui,CHEN Lixian,et al.Research on transmission line state evaluation technology based on historical data analysis[J].Smart Power,2019,47(1):8387+104.
    [6] 张长久,邬小波,谢小英.基于GB/T33593标准的DG低电压穿越输出特性研究[J].电力系统保护与控制,2019,47(24):7683.ZHANG Changjiu,WU Xiaobo,XIE Xiaoying.Research on DG low voltage ride through output characteristics based on GB/T33593 standard[J].Power System Protection and Contro,2019,47(24):7683.
    [7] ZHAO Tiebin，Comber M G.Calculation of electric field and potential distribution along nonceramic insulators considering the effects of conductors and transmission towers[J].IEEE Transactions on Power Delivery,2000,15(1):313318.
    [8] LI Jing,PENG Zhongren,FENG Yong,et al.Electric field calculation and grading ring optimization of composite insulator for 500 kV AC transmission lines[C]//International Conference on Solid Dielectrics.Potsdam,Germany:IEEE,2010.
    [9] 吴东,潘俊文,邹明,等.±800 kV特高压直流输电线路带电作业人体体表电场分布特性[J].电力科学与技术学报,2018,33(2):157164.WU Dong,PANG Junwen,ZOU Ming,et al.Research of electric field distribution characteristics for body surface of live working on ±800 kV DC transmission lines[J].Journal of Electric Power Science and Technology,2018,33(2):157164.
    [10] 冯勇,彭宗仁,刘鹏,等.特高压交流输电线路瓷绝缘子的均压特性[J].高电压技术,2010,36(1):270274.FENG Yong,PENG Zongren,LIU Peng,et al.Voltagesharing characteristics of porcelain insulators for UHV AC transmission lines[J].High Voltage Engineering,2010,36(1):270274.
    [11] 姜志鹏,文习山,蓝磊,等.粒子群算法应用于避雷器均压环配置优化[J].高压电器,2014,50(1):102106.JIANG Zhipeng,WEN Xishan,LAN Lei,et al.Application of particle swarm optimization algorithm to configuration optimization of grading rings for arrester[J].High Voltage Apparatus,2014,50(1):102106.
    [12] 万帅,张伟,陈家宏,等.一种新型110 kV输电线路雷击闪络限制器的研制[J].高压电器,2017,53(4):184190.WAN Shuai,ZHANG Wei,CHEN Jiahong,et al.Research and development of a new type lightning arresters for 110 kV AC transmission lines[J].High Voltage Apparatus,2017,53(4):184190.
    [13] De Castro Assis S,Do Couto Boaventura W,Paulino J O S,et al.Lightning Performance of Transmission Line with and without Surge Arresters:Comparison between a Monte Carlo method and field experience[J].Electric Power Systems Research,2017,149:169177.
    [14] 郭天伟,罗日成,潘茜雯,等.750 kV同塔双回交流输电线路电磁环境分析[J].电力科学与技术报,2018,33(1):4653.GUO Tianwei,LUO Richeng,PAN Qianwen,et al.Analysis on electromagnetic environment of 750 kV with doublecircuits on the same tower transmission lines[J].Journal of Electric Power Science and Technology,2018,33(1):4653.
    [15] 李振,余占清,何金良,等.线路避雷器改善同塔多回线路防雷性能的分析[J].高电压技术,2011,37(12):31203128.LI Zhen,YU Zhanqing,HE Jinliang,et al.Line surge arrester improving lighting protection performance of transmission line with muticircuits in a tower[J].High Voltage Engineering,2011,37(12):31203128.
    [16] 程学启,杨春雷,咸日常,等.线路避雷器在输电线路防雷中的应用[J].中国电力,1999,32(8):6667.CHENG Xueqi,YANG Chunlei,XIAN Richang,et al.Application of lightning arresters on transmission lines[J].Electric Power,1999,32(8):6667.
    [17] 史俊.复杂结构的有限元计算[D].宁波:宁波大学,2010.
    [18] 熊泰昌.电力避雷器[M].北京:中国水利电力出版社,2013.
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瞿杨全,江 岳,文 武,等.110kV线路雷击闪络限制器安装方式对玻璃绝缘子电场分布的影响[J].电力科学与技术学报,2020,35(1):157-162.
QU Yangquan, JIANG Yue, WEN Wu, et al. Influence of flashover limiter’s installation position on electric field distribution of 110 kV glass insulator[J]. Journal of Electric Power Science and Technology,2020,35(1):157-162.

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