Progress in research on ice accretions on overhead transmission lines and its influence on mechanical and insulating performance

Shaohua WANG, Xingliang JIANG

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PDF(221 KB)
Front. Electr. Electron. Eng. ›› 2012, Vol. 7 ›› Issue (3) : 326-336. DOI: 10.1007/s11460-012-0197-8
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REVIEW ARTICLE

Progress in research on ice accretions on overhead transmission lines and its influence on mechanical and insulating performance

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Abstract

Atmospheric ice accretion on transmission lines is of great danger to the security of service of electrical power system. This paper reviews the progress in research dealing with the formation of ice accretions on transmission lines and the effects of ice on the mechanical and electrical performance of transmission lines. The results show that ice accretions on transmission lines can be categorized into five types: glaze, hard rime, soft rime, hoar frost, and snow and sleet. In all types of ice accretions, glaze grown in a wet regime is of the greatest danger to the transmission lines. Meteorological conditions, terrain and geographic conditions, and some other factors significantly influence the ice accumulation speed and the ice amount. Drastic decrease of mechanical property and electric property as a result of severe icing is the main reason for ice accidents. The amount of ice, the asymmetrical ice accretion, and the asynchronous ice shedding can considerably change the conductor strain, conductor sag, variation amount of the span, displacement of the insulator string, and the tension difference. The amount and type of ice, the uniformity of ice accumulation, and the conductivity of freezing water have significant influence on the flashover voltage of ice-covered insulators.

Keywords

transmission lines / icing / mechanical performance / electrical performance

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Shaohua WANG, Xingliang JIANG. Progress in research on ice accretions on overhead transmission lines and its influence on mechanical and insulating performance. Front Elect Electr Eng, 2012, 7(3): 326‒336 https://doi.org/10.1007/s11460-012-0197-8

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