A Vision of HVDC Key Role Toward Fault-Tolerant and Stable AC/DC Grids

被引:12
作者
Luscan, Bruno [1 ]
Bacha, Seddik [2 ]
Benchaib, Abdelkrim [1 ]
Bertinato, Alberto [1 ]
Chedot, Laurent [1 ]
Carlos Gonzalez-Torres, Juan [1 ]
Poullain, Serge [1 ]
Romero-Rodriguez, Miguel [1 ]
Shinoda, Kosei [1 ]
机构
[1] SuperGrid Inst, F-69100 Villeurbanne, France
[2] Univ Grenoble Alpes, G2Elab, Grenoble INP, CNRS, F-38000 Grenoble, France
基金
欧盟地平线“2020”;
关键词
HVDC transmission; Power system stability; Voltage control; Capacitors; Transient analysis; Thermal stability; Security; AC; DC transmission; control and protection (C&P); hardware-in-the-loop (HIL); interoperability; multiterminal HVDC; supervisory control; VSC-HVDC; STABILITY; SYSTEMS; PROTECTION; DYNAMICS; MODEL;
D O I
10.1109/JESTPE.2020.3037016
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
Massive off-shore wind integration in the European power system and the necessity to increase the power flows between asynchronous areas and inside continental Europe, call for HVDC transmission development and multiterminal-HVDC-based transmission. HVDC technology is highly controllable, but also sensitive to faults and degraded modes. Achieving an efficient and robust AC/DC transmission system requires to develop a vision of HVDC role and functionalities in different situations. In addition to HVDC converter core control functions and DC grid protection strategies, a coordinated DC grid control layer is beneficial to supervise control modes toward overall AC/DC transmission system security and stability, as well as to ensure converter controls interoperability. This article offers a vision of what a robust AC/DC network can be, based on control and protection strategies that can be implemented via HVDC converter capabilities.
引用
收藏
页码:7471 / 7485
页数:15
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共 50 条
[41]   An evaluation of the wind energy dynamics in the Baltic Sea, past and future projections [J].
Rusu, Eugen .
RENEWABLE ENERGY, 2020, 160 :350-362
[42]  
Shinoda K., 2017, WO Patent, Patent No. [2019/012 209 Al, 2019012209]
[43]   Virtual Capacitor Control: Mitigation of DC Voltage Fluctuations in MMC-Based HVdc Systems [J].
Shinoda, Kosei ;
Benchaib, Abdelkrim ;
Dai, Jing ;
Guillaud, Xavier .
IEEE TRANSACTIONS ON POWER DELIVERY, 2018, 33 (01) :455-465
[44]  
Sigrist L, 2015, 2015 IEEE EINDHOVEN POWERTECH
[45]  
Van Hertem D., 2010, 2010 IEEE International Energy Conference (ENERGYCON 2010), P302, DOI 10.1109/ENERGYCON.2010.5771696
[46]   Multi-terminal VSC HVDC for the European supergrid: Obstacles [J].
Van Hertem, Dirk ;
Ghandhari, Mehrdad .
RENEWABLE & SUSTAINABLE ENERGY REVIEWS, 2010, 14 (09) :3156-3163
[47]   A classification of DC node voltage control methods for HVDC grids [J].
Vrana, Til Kristian ;
Beerten, Jef ;
Belmans, Ronnie ;
Fosso, Olav Bjarte .
ELECTRIC POWER SYSTEMS RESEARCH, 2013, 103 :137-144
[48]  
Wilson D., 2016, CIGRE PAR SESS, pC2
[49]   Improved Analytical Model for the Study of Steady State Performance of Droop-Controlled VSC-MTDC Systems [J].
Xiao, Liang ;
Xu, Zheng ;
An, Ting ;
Bian, Zhipeng .
IEEE TRANSACTIONS ON POWER SYSTEMS, 2017, 32 (03) :2083-2093
[50]   High Dynamics Control for MMC Based on Exact Discrete-Time Model With Experimental Validation [J].
Zama, Ahmed ;
Benchaib, Abdelkrim ;
Bacha, Seddik ;
Frey, David ;
Silvant, Sebastien .
IEEE TRANSACTIONS ON POWER DELIVERY, 2018, 33 (01) :477-488