參考文獻(xiàn)
[1] BOZHKO S, ASHER G, LI R, et al.Large offshore DFIG-based wind farm with line-commutated HVDC connection to the main grid :Engineering studies[J].IEEE Transactions on Energy Convertsion,2008,23(1) :119-127.
[2] GOMIS-BELLMUNT O, LIANG J, EKANAYAKE J,et al.Voltage current characteristics of multiterminal HVDC-VSC for offshore wind farms[J].Electric Power Systems Research,2011,81(2) :440-450.
[3] XU Lie , YAO Liangzhong , SASSE C . Grid integration of large DFIG-based wind farms using VSC transmission[J].IEEE Transactions on Power Systems,2007,22(3) :976-984.
[4] 姚良忠,吳婧,王志冰,等 . 未來高壓直流電網(wǎng)發(fā)展形態(tài)分析 [J] . 中國電機(jī)工程學(xué)報,2014,34(34) :6007-6020.
[5] CHAUDHURI N R, CHAUDHURI B.Adaptive droop control for effective power sharing in Multi Terminal DC(MTDC) grids[J].IEEE Transactions on Power Systems,2013,28(1) :21-29.
[6] CHAUDHURI N R, MAJUMDER R, CHAUDHURI B.System frequency support through Multi-Terminal DC(MTDC) grids[J].IEEE Transactions on Power Systems,2013,28(1) :347-356.
[7] ZHANG L, HARNEFORS L, NEE H P.Interconnection of two very weak AC systems by VSC-HVDC links using power-synchronization control[J].IEEE Transactions on Power Systems,2011,26(1) :344-355.
[8] GUAN M, CHENG J, WANG C, et al.The frequency regulation scheme of interconnected grids with VSC-HVDC links[J].IEEE Transactions on Power Systems,2017,32(2) :864-872.
[9] ANDREASSON M, WIGET R, DIMAROGONAS D V, et al.Distributed frequency control through MTDC transmission systems[J].IEEE Transactions on Power Systems,2017,32(1) :250-260.
[10]MORREN J, DEHAAN S W H, KLING W L, et al. Wind turbines emulating inertia and supporting primary frequency control[J].IEEE Transactions on Power Systems,2006,21(1) :433-434.
[11]DAI J, PHULPIN Y, SARLETTE A, et al.Impact of delays on a consensus-based primary frequency control scheme for AC systems connected by a multi-terminal HVDC grid[C]//Bulk Power System
Dynamics and Control- Ⅷ (IREP),2010 :1-9.
[12]BIANCHI F D, DOMINGUEZ-GARCIA J L, GOMIS BELLMUNT O.Control of multi-terminal HVDC networks towards wind power integration: A review[J].Renewable and Sustainable Energy Reviews,2016,55(1) :1055-1068.
[13]BIANCHI F D, DOMINGUEZ-GARCIA J L, VRANA T K.Distributed frequency control with partial information using MT-HVDC grids and WPPs[J].IEEE Systems Journal,2019,13(2) :1694-1701.
[14]王煒字,李勇,曹一家,等 . 參與電網(wǎng)調(diào)頻的多端柔性直流輸電系統(tǒng)自適應(yīng)下垂控制策略 [J] . 電力系統(tǒng)自動化,2017,41(13) :142-149.
[15]楊金剛,袁志昌,李順昕,等 . 經(jīng)柔性直流輸電并網(wǎng)的大型風(fēng)電場頻率控制策略 [J] . 電力自動化設(shè)備,2019,39(6) :109-114.
[16]吳巖松 . 基于 IGBT 開關(guān)動態(tài)特性離線測試系統(tǒng)的大功率逆變器熱 - 電耦合研究 [D]. 杭州:浙江大學(xué),2013.
[17]吳蒙,賀之淵,閻發(fā)友,等 . 下垂控制對直流電網(wǎng)動態(tài)電壓穩(wěn)定性的影響分析 [J] . 電力系統(tǒng)保護(hù)與控制,2019,47(10) :8-15.
[18]徐進(jìn),金逸,胡從川,等 . 適用于海上風(fēng)電并網(wǎng)的多端柔性直流系統(tǒng)自適應(yīng)下垂控制研究 [J] . 電力系統(tǒng)保護(hù)與控制,2018,46(4) :78-85.
[19]洪莎莎,武迪,呂宏水,等 . 基于高階系統(tǒng)模型的 VSC-MTDC 下垂控制策略研究 [J]. 電力系統(tǒng)保護(hù)與控制,2017,45(22) :125-131.
[20]劉寧寧,曹煒,趙晉斌 . 直流微電網(wǎng)的一種增量式下垂控制方法 [J] . 電力系統(tǒng)保護(hù)與控制,2018,46(8) :24-30.
[21]RENEDO J, GARCIA-CERRADA A, ROUCO L.Reactive power coordination in VSC-HVDC multiterminal systems for transient stability improvement[J].IEEE Transactions on Power Systems 2017,32(5) :3758-3767.
[22]吳方劼,馬玉龍,梅念,等 . 舟山多端柔性直流輸電工程主接線方案設(shè)計 [J] . 電網(wǎng)技術(shù),2014,38(10) :2651-2657.
[23]周浩,沈揚(yáng),李敏,等 . 舟山多端柔性直流輸電工程換流站絕緣配合 [J] . 電網(wǎng)技術(shù),2013,37(4) :879-890.