Modeling, Experimental Validation, and Application of VARC HVDC Circuit Breakers

Journal Article (2020)
Author(s)

Siyuan Liu (Xi’an Jiaotong University, TU Delft - Intelligent Electrical Power Grids)

Marjan Popov (TU Delft - Intelligent Electrical Power Grids)

Seyed Sattar Mirhosseini (Iran University of Science and Technology, TU Delft - Intelligent Electrical Power Grids)

Simon Nee (SCiBreak AB)

Tomas Modeer (SCiBreak AB)

Lennart Ängquist (SCiBreak AB)

Nadew Belda (DNVGL - KEMA Laboratories )

Kees Koreman (TenneT TSO B.V.)

Mart A.M.M. van der Meijden (TenneT TSO B.V., TU Delft - Intelligent Electrical Power Grids)

DOI related publication
https://doi.org/10.1109/TPWRD.2019.2947544 Final published version
More Info
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Publication Year
2020
Language
English
Issue number
3
Volume number
35
Article number
8869738
Pages (from-to)
1515-1526
Downloads counter
446
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Abstract

This paper deals with the modeling, hardware results and model validation by measurements of a VSC assisted resonant current (VARC) dc circuit breaker (CB) and the application within a future network by simulation. The newly emerging VARC dc CB can be used as a solution for the protection of offshore multi-terminal HVDC (MTDC) grids. In this paper, the proposed VARC dc CB is modeled in detail in a PSCAD environment, by taking into account dielectric strength of the vacuum gap, high-frequency current quenching ability and parasitic components. The PSCAD-model is then verified by data from the testing of a 27 kV VARC dc CB prototype with maximum current interruption capability of 10 kA. Additionally, the initial transient interruption voltage and current slope at zero-crossing during the interruption are analyzed. With respect to scaling to a higher voltage level, three types of series connected modules are presented and the performances are compared. The performance of the series connected modules is simulated in a model of a 4-terminal HVDC grid. The obtained results validate the VARC dc CB as a promising solution for the dc fault isolation in MTDC grids.

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