Adaptive VDCOL control strategy for the recovery of the UHVDC SPC system
The separating pole connection (SPC) mode of ultra-high-voltage direct current (UHVDC) can significantly improve the power stability, but when the AC bus of one pole is failed and two receiving systems are near, it may cause subsequent commutation failure. In order to restrain subsequent commutation...
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doaj-7cfbebdeb0e74510b52b3d4555533c3b2021-04-02T11:57:07ZengWileyThe Journal of Engineering2051-33052019-04-0110.1049/joe.2018.8759JOE.2018.8759Adaptive VDCOL control strategy for the recovery of the UHVDC SPC systemShujun Yao0Wenerda Huang1Wenbo Hao2Guo Wanhua3School of Electrical & Electronic Engineering, North China Electric Power UniversitySchool of Electrical & Electronic Engineering, North China Electric Power UniversityHeilongjiang Electric Power Research InstituteSchool of Electrical & Electronic Engineering, North China Electric Power UniversityThe separating pole connection (SPC) mode of ultra-high-voltage direct current (UHVDC) can significantly improve the power stability, but when the AC bus of one pole is failed and two receiving systems are near, it may cause subsequent commutation failure. In order to restrain subsequent commutation failure and accelerate system's recovery, an adaptive voltage-dependent current order limiter (VDCOL) control strategy based on granular computing is proposed. According to this VDCOL control strategy, VDCOL, which uses fuzzy rules to separate and granulate a different voltage level, can adjust DC current dynamically in a variety of environments. Also, some modifications on VDCOL characteristics are applied to reduce reactive power consumption during low-voltage situations. Then based on the MATLAB simulation platform, the simulation systems for 800 kV the UHVDC SPC system are built. Finally, the simulation example of the SPC mode with the adaptive VDCOL control strategy showed that this VDCOL control strategy can reduce the risk of subsequent commutation failure and improve the stability of the AC/DC interconnection system.https://digital-library.theiet.org/content/journals/10.1049/joe.2018.8759voltage controlpower transmission controlHVDC power transmissioncommutationreactive power controlpower system stabilitypower system interconnectionpower transmission reliabilityadaptive VDCOL control strategyUHVDC SPC systemultra-high-voltage direct currentpower stabilityreceiving systemssubsequent commutation failureadaptive voltage-dependentVDCOL characteristicslow-voltage situationssimulation systemsSPC modevoltage levelpole connection modeAC-]DC interconnection systemvoltage 800.0 kV |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Shujun Yao Wenerda Huang Wenbo Hao Guo Wanhua |
spellingShingle |
Shujun Yao Wenerda Huang Wenbo Hao Guo Wanhua Adaptive VDCOL control strategy for the recovery of the UHVDC SPC system The Journal of Engineering voltage control power transmission control HVDC power transmission commutation reactive power control power system stability power system interconnection power transmission reliability adaptive VDCOL control strategy UHVDC SPC system ultra-high-voltage direct current power stability receiving systems subsequent commutation failure adaptive voltage-dependent VDCOL characteristics low-voltage situations simulation systems SPC mode voltage level pole connection mode AC-]DC interconnection system voltage 800.0 kV |
author_facet |
Shujun Yao Wenerda Huang Wenbo Hao Guo Wanhua |
author_sort |
Shujun Yao |
title |
Adaptive VDCOL control strategy for the recovery of the UHVDC SPC system |
title_short |
Adaptive VDCOL control strategy for the recovery of the UHVDC SPC system |
title_full |
Adaptive VDCOL control strategy for the recovery of the UHVDC SPC system |
title_fullStr |
Adaptive VDCOL control strategy for the recovery of the UHVDC SPC system |
title_full_unstemmed |
Adaptive VDCOL control strategy for the recovery of the UHVDC SPC system |
title_sort |
adaptive vdcol control strategy for the recovery of the uhvdc spc system |
publisher |
Wiley |
series |
The Journal of Engineering |
issn |
2051-3305 |
publishDate |
2019-04-01 |
description |
The separating pole connection (SPC) mode of ultra-high-voltage direct current (UHVDC) can significantly improve the power stability, but when the AC bus of one pole is failed and two receiving systems are near, it may cause subsequent commutation failure. In order to restrain subsequent commutation failure and accelerate system's recovery, an adaptive voltage-dependent current order limiter (VDCOL) control strategy based on granular computing is proposed. According to this VDCOL control strategy, VDCOL, which uses fuzzy rules to separate and granulate a different voltage level, can adjust DC current dynamically in a variety of environments. Also, some modifications on VDCOL characteristics are applied to reduce reactive power consumption during low-voltage situations. Then based on the MATLAB simulation platform, the simulation systems for 800 kV the UHVDC SPC system are built. Finally, the simulation example of the SPC mode with the adaptive VDCOL control strategy showed that this VDCOL control strategy can reduce the risk of subsequent commutation failure and improve the stability of the AC/DC interconnection system. |
topic |
voltage control power transmission control HVDC power transmission commutation reactive power control power system stability power system interconnection power transmission reliability adaptive VDCOL control strategy UHVDC SPC system ultra-high-voltage direct current power stability receiving systems subsequent commutation failure adaptive voltage-dependent VDCOL characteristics low-voltage situations simulation systems SPC mode voltage level pole connection mode AC-]DC interconnection system voltage 800.0 kV |
url |
https://digital-library.theiet.org/content/journals/10.1049/joe.2018.8759 |
work_keys_str_mv |
AT shujunyao adaptivevdcolcontrolstrategyfortherecoveryoftheuhvdcspcsystem AT wenerdahuang adaptivevdcolcontrolstrategyfortherecoveryoftheuhvdcspcsystem AT wenbohao adaptivevdcolcontrolstrategyfortherecoveryoftheuhvdcspcsystem AT guowanhua adaptivevdcolcontrolstrategyfortherecoveryoftheuhvdcspcsystem |
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1721570785746747392 |