Effect of Heat Exchange Transient Conditions With Moving Water-Air Interface on Space Charge Accumulation in Undersea HVdc Cables

The accumulation of space charge inside the dielectric layer of an HVdc cable is one of the most important issue to be considered in the design stage and during the operating conditions. The separation of space charge is due to several factors including the dependence on temperature of the electrica...

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Veröffentlicht in:IEEE transactions on industry applications 2021-09, Vol.57 (5), p.4528-4536
Hauptverfasser: Rizzo, Giuseppe, Viola, Fabio, Ala, Guido, Romano, Pietro, Schettino, Giuseppe, Imburgia, Antonino, Giglia, Graziella
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container_issue 5
container_start_page 4528
container_title IEEE transactions on industry applications
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creator Rizzo, Giuseppe
Viola, Fabio
Ala, Guido
Romano, Pietro
Schettino, Giuseppe
Imburgia, Antonino
Giglia, Graziella
description The accumulation of space charge inside the dielectric layer of an HVdc cable is one of the most important issue to be considered in the design stage and during the operating conditions. The separation of space charge is due to several factors including the dependence on temperature of the electrical conductivity of the insulation and the establishment of a thermal gradient under load conditions. This article is focused on the investigation of the effect of an axial heat transmission on the space charge and electric field distributions in an HVdc cable. In order to assess the impact of this phenomenon, a case study involving a cable immersed partly in water and partly in air has been simulated by means of a 2-D thermal and electrical model in time domain. The electric field calculation is based on the quasi-static Maxwell model and the current continuity equation. To simulate the effect of waves, a moving water-air interface is considered, with time varying sinusoidal law. The results show the establishment of an electrical field peak near the water-air interface due to an increased temperature drop over the insulation in this area. The approach and the findings described in this article attempt to improve the knowledge in the relationship between thermal and electrical phenomena in HVdc cables. Moreover, this article focuses on the advisability of appropriately considering the impact of the axial heat transfer in the standards on the thermal rating of HVdc cables.
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The separation of space charge is due to several factors including the dependence on temperature of the electrical conductivity of the insulation and the establishment of a thermal gradient under load conditions. This article is focused on the investigation of the effect of an axial heat transmission on the space charge and electric field distributions in an HVdc cable. In order to assess the impact of this phenomenon, a case study involving a cable immersed partly in water and partly in air has been simulated by means of a 2-D thermal and electrical model in time domain. The electric field calculation is based on the quasi-static Maxwell model and the current continuity equation. To simulate the effect of waves, a moving water-air interface is considered, with time varying sinusoidal law. The results show the establishment of an electrical field peak near the water-air interface due to an increased temperature drop over the insulation in this area. The approach and the findings described in this article attempt to improve the knowledge in the relationship between thermal and electrical phenomena in HVdc cables. 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subjects Accumulation
Cables
Conductivity
Continuity equation
Electric cables
Electric fields
Electrical phenomena
Electrical resistivity
Heat
Heat exchange
Heat transmission
HVdc
HVDC transmission
Insulation
Mathematical analysis
PEA
Power cable insulation
Power cables
Space charge
Submarine cables
sustainable islands
Temperature dependence
Temperature gradients
thermal rating
Thermal resistance
Two dimensional models
Undersea
title Effect of Heat Exchange Transient Conditions With Moving Water-Air Interface on Space Charge Accumulation in Undersea HVdc Cables
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