Failure Mechanisms of Shielded Power Cable Related to High Ground Shield Resistance and/or Insulation of Neutral Wires from the Ground Shield

A number of conditions can cause separation of the neutral wires from the semiconducting ground shield or cause a large increase in the resistivity of the wound shield. Such conditions can lead to (i) the ground shield becoming effectively floating or (ii) the ground shield acting as a dielectric ra...

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Veröffentlicht in:IEEE power engineering review 2001-12, Vol.21 (12), p.68-68
1. Verfasser: Boggs, S. A.
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description A number of conditions can cause separation of the neutral wires from the semiconducting ground shield or cause a large increase in the resistivity of the wound shield. Such conditions can lead to (i) the ground shield becoming effectively floating or (ii) the ground shield acting as a dielectric rather than a conductor. In either case, this can lead to partial discharge under normal operating voltage and/or lightning surge-induced flashover between the neutral wires and ground shield, conditions that can cause cable failure. The theoretical context of these conditions is examined, after which a concrete example, which has resulted in field failures, is provided.
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subjects Cable insulation
Conductivity
Conductors
Conductors (devices)
Dielectrics
Electric potential
Failure
Failure analysis
Failure mechanisms
Grounds
Insulation
Partial discharges
Power cables
Semiconductivity
Shields
Wire
Wires
Wounds
title Failure Mechanisms of Shielded Power Cable Related to High Ground Shield Resistance and/or Insulation of Neutral Wires from the Ground Shield
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