Electrostatic and magnetic field analyses of 66-kv cross-linked polyethylene submarine power cable equipped with optical fiber sensors

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Abstract

This article presents a 2D finite element analysis for a 66-kV, three-phase, three-core, cross-linked polyethylene power cable with and without three symmetrically arranged optical fiber sensors. The aim of this simulation is to investigate how the electric and magnetic fields and the eddy-current density distributions change when adding these sensors. These electric and thermal (produced by eddy current) stresses govern the cable's lifetime and current rating ampacity, respectively. In the electrostatic analysis, the electric field distributions are studied before and after adding the optical fiber sensors. In the magnetic analysis, three cases are investigated, namely, balanced, unbalanced, and single phasing, where the magnetic field and the eddy-current density distributions are computed at different locations. The use of the optical fiber sensors in such cross-linked polyethylene power cables has no major electrical or magnetic effects. On the other hand, the single-phasing operation represents the worst cable condition due to heat build-up; especially for the cross-linked polyethylene insulation, where the square of the eddy-current density in the individual sheath of the energized phases is roughly three times that for the balanced case.

Original languageEnglish
Pages (from-to)465-476
Number of pages12
JournalElectric Power Components and Systems
Volume38
Issue number4
DOIs
Publication statusPublished - Jan 2010

Fingerprint

Fiber optic sensors
Eddy currents
Polyethylenes
Cables
Electric fields
Magnetic fields
Current density
Cable cores
Insulation
Electrostatics
Finite element method
Sensors
Hot Temperature

Keywords

  • Eddy current
  • Finite element method
  • Imbalance
  • Magnetic analysis
  • Optical fiber sensors
  • Submarine cables
  • Thermal analysis

ASJC Scopus subject areas

  • Energy Engineering and Power Technology
  • Electrical and Electronic Engineering
  • Mechanical Engineering

Cite this

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abstract = "This article presents a 2D finite element analysis for a 66-kV, three-phase, three-core, cross-linked polyethylene power cable with and without three symmetrically arranged optical fiber sensors. The aim of this simulation is to investigate how the electric and magnetic fields and the eddy-current density distributions change when adding these sensors. These electric and thermal (produced by eddy current) stresses govern the cable's lifetime and current rating ampacity, respectively. In the electrostatic analysis, the electric field distributions are studied before and after adding the optical fiber sensors. In the magnetic analysis, three cases are investigated, namely, balanced, unbalanced, and single phasing, where the magnetic field and the eddy-current density distributions are computed at different locations. The use of the optical fiber sensors in such cross-linked polyethylene power cables has no major electrical or magnetic effects. On the other hand, the single-phasing operation represents the worst cable condition due to heat build-up; especially for the cross-linked polyethylene insulation, where the square of the eddy-current density in the individual sheath of the energized phases is roughly three times that for the balanced case.",
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AB - This article presents a 2D finite element analysis for a 66-kV, three-phase, three-core, cross-linked polyethylene power cable with and without three symmetrically arranged optical fiber sensors. The aim of this simulation is to investigate how the electric and magnetic fields and the eddy-current density distributions change when adding these sensors. These electric and thermal (produced by eddy current) stresses govern the cable's lifetime and current rating ampacity, respectively. In the electrostatic analysis, the electric field distributions are studied before and after adding the optical fiber sensors. In the magnetic analysis, three cases are investigated, namely, balanced, unbalanced, and single phasing, where the magnetic field and the eddy-current density distributions are computed at different locations. The use of the optical fiber sensors in such cross-linked polyethylene power cables has no major electrical or magnetic effects. On the other hand, the single-phasing operation represents the worst cable condition due to heat build-up; especially for the cross-linked polyethylene insulation, where the square of the eddy-current density in the individual sheath of the energized phases is roughly three times that for the balanced case.

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KW - Thermal analysis

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