Improved Modeling and Influencing Factors Analysis of the Sliding Motion of Arc Roots Along OGW During Lightning Strikes

When an overhead ground wire (OGW) is struck by lightning, the sliding motion of arc root (hereafter referred to as sliding motion) causes various lightning-induced damage mechanisms. To provide a data-based foundation for the analysis of damage mechanism and improvement of existing lightning-induce...

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Veröffentlicht in:IEEE transactions on power delivery 2024-04, Vol.39 (2), p.947-957
Hauptverfasser: Guo, Deming, Lin, Ziming, Wang, Peifeng, Peng, Xiangyang, Wang, Rui, Liu, Gang
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container_issue 2
container_start_page 947
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creator Guo, Deming
Lin, Ziming
Wang, Peifeng
Peng, Xiangyang
Wang, Rui
Liu, Gang
description When an overhead ground wire (OGW) is struck by lightning, the sliding motion of arc root (hereafter referred to as sliding motion) causes various lightning-induced damage mechanisms. To provide a data-based foundation for the analysis of damage mechanism and improvement of existing lightning-induced damage test method, it is necessary to analyze this sliding motion. In this article, a sliding motion model along the OGW was established based on the arc chain model. The proposed model was verified by an OGW rupture case caused by sliding motion and a needle-wire discharge experiment. Using the model, the factors influencing the sliding displacement of arc root (hereafter referred to as x root ) were analyzed. The results showed that in the case of return stroke, the influence of nonuniform wind velocity distribution in the boundary layer and thermal buoyancy can be neglected. x root is positively correlated with the wave tail time but independent of the wave head time. In the case of continuing current, the nonuniform distribution of wind velocity in the boundary layer and thermal buoyancy can influence the results of x root , with maximum errors exceeding 50% and 25%, respectively. In addition, the contribution of wind to the sliding motion can be neglected.
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To provide a data-based foundation for the analysis of damage mechanism and improvement of existing lightning-induced damage test method, it is necessary to analyze this sliding motion. In this article, a sliding motion model along the OGW was established based on the arc chain model. The proposed model was verified by an OGW rupture case caused by sliding motion and a needle-wire discharge experiment. Using the model, the factors influencing the sliding displacement of arc root (hereafter referred to as x root ) were analyzed. The results showed that in the case of return stroke, the influence of nonuniform wind velocity distribution in the boundary layer and thermal buoyancy can be neglected. x root is positively correlated with the wave tail time but independent of the wave head time. In the case of continuing current, the nonuniform distribution of wind velocity in the boundary layer and thermal buoyancy can influence the results of x root , with maximum errors exceeding 50% and 25%, respectively. 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To provide a data-based foundation for the analysis of damage mechanism and improvement of existing lightning-induced damage test method, it is necessary to analyze this sliding motion. In this article, a sliding motion model along the OGW was established based on the arc chain model. The proposed model was verified by an OGW rupture case caused by sliding motion and a needle-wire discharge experiment. Using the model, the factors influencing the sliding displacement of arc root (hereafter referred to as x root ) were analyzed. The results showed that in the case of return stroke, the influence of nonuniform wind velocity distribution in the boundary layer and thermal buoyancy can be neglected. x root is positively correlated with the wave tail time but independent of the wave head time. 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subjects Arc chain model
Arc discharges
arc root
Atmospheric modeling
Buoyancy
Damage
Electromagnetic forces
Lightning
lightning strike
Lightning strikes
Load modeling
Loading
overhead ground wire
Return strokes (lightning)
Sliding
sliding motion characteristics
Thermal boundary layer
Velocity distribution
Wind speed
Wire
Wiring
title Improved Modeling and Influencing Factors Analysis of the Sliding Motion of Arc Roots Along OGW During Lightning Strikes
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