期刊文献+

导线表面最大场强对直流输电线路电磁环境的影响分析 被引量:5

Influence Analysis of Conductor Surface Maximum Electric Field Strength on DC Transmission Line Electromagnetic Environment
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摘要 介绍了高压直流输电线路导线表面最大场强和线路电磁环境参数的计算方法。针对±660kV直流输电线路,分析了导线表面最大场强对地面合成电场、地面离子流密度、无线电干扰和可听噪声的影响。得出正极导线电压在620~680kV之间变化时.随着导线表面最大场强的增大.地面合成电场和地面离子流密度分别增加1.2倍和2.8倍;导线表面最大场强对无线电干扰和可听噪声的影响相对较小.分别增加17%和0.3%。±660kV直流输电线路在额定电压范围内运行时.电磁环境指标不会超出《高压直流架空送电线路技术导则》的规定。 The calculation method of the HVDC transmission line conductor surface maximum field strength and electromagnetic environment parameters. For ±660 kV DC transmission line, the influence of the conductor surface maximum field strength on the ground synthetic electric density, radio interference and audible noise were analyzed. When the between 620 kV to 680 kV, with the increase of the conductor surface synthetic ground electric field and ground ion current density increase by influence on the radio interference and audible noise are relatively small, 17% and 0.3% respectively. When the ±660 kV DC transmission line electromagnetic environmental indicators will not exceed the specified value field, the ground ion current positive conductor voltage is maximum field strength, the 1.2 times and 2.8 times. The and the increased values are is under rated voltage, the in high voltage direct current overhead transmission line technical guidance.
出处 《高压电器》 CAS CSCD 北大核心 2013年第10期7-12,共6页 High Voltage Apparatus
基金 山东电力集团公司项目(JS-09018)~~
关键词 导线表面最大场强 地面合成场强 地面离子流密度 无线电干扰 可听噪声 conductor surface maximum electric ground synthetic electric field ground ion current density radio interference audible noise
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  • 1IEEE Corona and Field Effects Subcommittee Report Ra- dio Noise Working Group. A survey of methods for calcu- lating transmission line conductor surface voltage gradi- ents[J]. IEEE Trans. on Power Application System, 1979, 98(6): 1996-2014.
  • 2THANASSOULIS P, COMSA R P. Calculation of maxi- mum voltage gradients, Part I : Bundle conductors [J]. IEEE Trans. on Power Application System, 1971, 90(1): 145-150.
  • 3THANASSOULIS P, COMSA R P. Distribution of voltage gradients in bundled transmission lines by the bipole method[J]. IEEE Tran on Power Application System, 1973, 92(2): 769-774.
  • 4AL-HAMOUZ Z M,ABDEL-SALAM M.Ineeption voltage of corona in bipolar ionized fields effect on corona power loss[J]. IEEE Transactions on Industry Applications, 1998,34 (1) : 57-65.
  • 5HARTMANN G. Theoretical evaluation of Peek's law[J]. IEEE Trans. on Industry Application, 1984, 20(6): 1647-1650.
  • 6RAFIROIU D, SUARASAN I, MORAR R. Corona incep- tion in typical electrode configurations for electrostatic processes applications[J]. IEEE Trans. on Industry Appli- cation, 2001, 37(3):766-770.
  • 7YAMAZAKI K, OLSEN R G. Application of a corona on- set criterion to calculation of corona onset voltage of stranded conductors [J]. IEEE Trans. on Dielectrics and Electrical Insulation, 2004, 11(4):674-680.
  • 8王小凤,周浩.±800kV特高压直流输电线路的电磁环境研究[J].高压电器,2007,43(2):109-112. 被引量:52
  • 9ADAMIAK K.Adaptive approach to finite element model- ing of corona fields[J]. IEEE Transactions on Industry Ap- plication, 1994,30(2) : 387-393.
  • 10LUO Z,DEMERDASH N A.A finite-element ballooning model for 2D eddy current open boundary problems for aerospace applications [J]. IEEE Transactions on Magnet- ics, 1992,28(5) : 2241-2243.

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