Bidirectional solid current-limiter for HVDC grids

High-voltage direct current (HVDC) grids have been assumed as a promising technology for its advantages in accommodation and integration of large-scale renewable energy. However, the fault current increases dramatically once the fault occurs in HVDC grids, which makes great difficulty in fault clear...

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Main Authors: Jiantao Li, Xiaoming Zheng, Gang Wang, Chao Hong, Yan Chen
Format: Article
Language:English
Published: Wiley 2019-04-01
Series:The Journal of Engineering
Subjects:
Online Access:https://digital-library.theiet.org/content/journals/10.1049/joe.2018.8484
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spelling doaj-93dfb5c31ab941cab59eb8515ff23a3d2021-04-02T05:36:50ZengWileyThe Journal of Engineering2051-33052019-04-0110.1049/joe.2018.8484JOE.2018.8484Bidirectional solid current-limiter for HVDC gridsJiantao Li0Xiaoming Zheng1Gang Wang2Chao Hong3Yan Chen4South China University of technologySouth China University of technologySouth China University of technologyElectric Power Research Institute, CSGElectric Power Research Institute, CSGHigh-voltage direct current (HVDC) grids have been assumed as a promising technology for its advantages in accommodation and integration of large-scale renewable energy. However, the fault current increases dramatically once the fault occurs in HVDC grids, which makes great difficulty in fault clearance. Therefore, it is necessary to take some measures to limit the fault current. A bidirectional solid current-limiter (BSCL) topology is proposed. The BSCL can improve the performance of inductors to limit DC fault currents through the high-frequency switching between two current-limiting branches. Besides, the BSCL can be installed at both ends of a DC transmission line or between a converter and a DC bus. The feasibility of the proposed topology is demonstrated in power systems computer-aided design/electro-magnetic transient design and control. Simulation results indicate that the BSCL can effectively limit the rising speed and the amplitude of short-circuit currents, decrease the maximum breaking currents of DC breakers and improve the breaking speed of DC breakers.https://digital-library.theiet.org/content/journals/10.1049/joe.2018.8484power gridsHVDC power convertorscircuit breakersshort-circuit currentsHVDC power transmissionfault current limitershigh-frequency switchingBSCLDC transmission lineDC buspower systems computer-aided design/electro-magnetic transient designshort-circuit currentsDC breakersHVDC gridshigh-voltage direct current gridslarge-scale renewable energyfault clearanceDC fault currentsfault currentbidirectional solid current-limiter topologycurrent-limiting branches
collection DOAJ
language English
format Article
sources DOAJ
author Jiantao Li
Xiaoming Zheng
Gang Wang
Chao Hong
Yan Chen
spellingShingle Jiantao Li
Xiaoming Zheng
Gang Wang
Chao Hong
Yan Chen
Bidirectional solid current-limiter for HVDC grids
The Journal of Engineering
power grids
HVDC power convertors
circuit breakers
short-circuit currents
HVDC power transmission
fault current limiters
high-frequency switching
BSCL
DC transmission line
DC bus
power systems computer-aided design/electro-magnetic transient design
short-circuit currents
DC breakers
HVDC grids
high-voltage direct current grids
large-scale renewable energy
fault clearance
DC fault currents
fault current
bidirectional solid current-limiter topology
current-limiting branches
author_facet Jiantao Li
Xiaoming Zheng
Gang Wang
Chao Hong
Yan Chen
author_sort Jiantao Li
title Bidirectional solid current-limiter for HVDC grids
title_short Bidirectional solid current-limiter for HVDC grids
title_full Bidirectional solid current-limiter for HVDC grids
title_fullStr Bidirectional solid current-limiter for HVDC grids
title_full_unstemmed Bidirectional solid current-limiter for HVDC grids
title_sort bidirectional solid current-limiter for hvdc grids
publisher Wiley
series The Journal of Engineering
issn 2051-3305
publishDate 2019-04-01
description High-voltage direct current (HVDC) grids have been assumed as a promising technology for its advantages in accommodation and integration of large-scale renewable energy. However, the fault current increases dramatically once the fault occurs in HVDC grids, which makes great difficulty in fault clearance. Therefore, it is necessary to take some measures to limit the fault current. A bidirectional solid current-limiter (BSCL) topology is proposed. The BSCL can improve the performance of inductors to limit DC fault currents through the high-frequency switching between two current-limiting branches. Besides, the BSCL can be installed at both ends of a DC transmission line or between a converter and a DC bus. The feasibility of the proposed topology is demonstrated in power systems computer-aided design/electro-magnetic transient design and control. Simulation results indicate that the BSCL can effectively limit the rising speed and the amplitude of short-circuit currents, decrease the maximum breaking currents of DC breakers and improve the breaking speed of DC breakers.
topic power grids
HVDC power convertors
circuit breakers
short-circuit currents
HVDC power transmission
fault current limiters
high-frequency switching
BSCL
DC transmission line
DC bus
power systems computer-aided design/electro-magnetic transient design
short-circuit currents
DC breakers
HVDC grids
high-voltage direct current grids
large-scale renewable energy
fault clearance
DC fault currents
fault current
bidirectional solid current-limiter topology
current-limiting branches
url https://digital-library.theiet.org/content/journals/10.1049/joe.2018.8484
work_keys_str_mv AT jiantaoli bidirectionalsolidcurrentlimiterforhvdcgrids
AT xiaomingzheng bidirectionalsolidcurrentlimiterforhvdcgrids
AT gangwang bidirectionalsolidcurrentlimiterforhvdcgrids
AT chaohong bidirectionalsolidcurrentlimiterforhvdcgrids
AT yanchen bidirectionalsolidcurrentlimiterforhvdcgrids
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