Fault Characteristics Analysis and Line Protection Design Within a Large-Scale Photovoltaic Power Plant

被引:73
|
作者
Jia, Ke [1 ]
Gu, Chenjie [2 ]
Xuan, Zhenwen [1 ]
Li, Lun [1 ]
Lin, Yaoqi [1 ]
机构
[1] North China Elect Power Univ, State Key Lab Alternat Elect Power Syst Renewable, Beijing 102206, Peoples R China
[2] State Grid Suzhou Power Supply Co, Suzhou 215000, Peoples R China
关键词
Centralized photovoltaic power plant; distance relay; fault current analysis; overcurrent relay (OCR); relay scheme; DISTRIBUTED GENERATION; DISTRIBUTION-SYSTEMS; CONTROL SCHEME; GRID FAULTS; NETWORKS; CONVERTERS; INVERTERS;
D O I
10.1109/TSG.2017.2648879
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
Centralized photovoltaic (PV) systems have different fault characteristics from distributed PV systems due to the different system structures and controls. This makes the fault analysis and protection methods used in distribution networks with distributed PV not suitable for a centralized PV power plant. Therefore, a consolidated expression for the fault current within a PV power plant under different controls was calculated considering the fault response of the PV array. Then, supported by the fault current analysis and the field-testing data, the over current relay (OCR) performance was evaluated in the collection system of an 850 MW PV power plant. It reveals that the OCRs at PV side on overhead lines may malfunction. In this case, a new relay scheme was proposed using directional distance elements. In PSCAD/EMTDC, a detailed PV system model was built and verified using the field-testing data. Simulation results indicate that the proposed relay scheme could effectively solve the problems under variant fault scenarios and PV plant output levels.
引用
收藏
页码:4099 / 4108
页数:10
相关论文
共 50 条
  • [31] LARGE-SCALE SOLAR POWER VIA PHOTOVOLTAIC EFFECT
    LOFERSKI, JJ
    [J]. MECHANICAL ENGINEERING, 1973, 95 (12): : 28 - 32
  • [32] External Lightning Protection and Grounding in Large-Scale Photovoltaic Applications
    Charalambous, Charalambos A.
    Kokkinos, Nikolaos D.
    Christofides, Nikolas
    [J]. IEEE TRANSACTIONS ON ELECTROMAGNETIC COMPATIBILITY, 2014, 56 (02) : 427 - 434
  • [33] Power Transformer Design Implementation for Large-Scale Solar Power Plant Grid Integration
    Ndwandwe, Buyisiwe
    Akuru, Udochukwu B.
    Ramphele, Lawrence
    Thango, Bonginkosi A.
    Memane, Ntombizotwa P.
    Okoro, Ogbonnaya, I
    [J]. INTERNATIONAL CONFERENCE ON ELECTRICAL, COMPUTER AND ENERGY TECHNOLOGIES (ICECET 2021), 2021, : 1850 - 1854
  • [34] Studies on the Grid-Connected Characteristics about Large-Scale Photovoltaic Power Bases
    Jiang, Hui
    Zheng, Xin
    Wu, Xinquan
    Li, Zhiwei
    [J]. ADVANCES IN ENERGY SCIENCE AND TECHNOLOGY, PTS 1-4, 2013, 291-294 : 152 - 157
  • [35] Stability analysis of large-scale photovoltaic power plants for the effect of grid impedance
    Yang, Ming
    Zhou, Lin
    Zhang, Dongxia
    Zhang, Mi
    [J]. Diangong Jishu Xuebao/Transactions of China Electrotechnical Society, 2013, 28 (09): : 214 - 223
  • [36] Grid integration priority of large-scale photovoltaic power and hydropower within a hybrid generation system
    Ming B.
    Guo X.
    Cheng L.
    Fang W.
    Yu M.
    Huang Q.
    [J]. Shuili Xuebao/Journal of Hydraulic Engineering, 2023, 54 (11): : 1287 - 1297and1308
  • [37] The generator of the large-scale power plant in Klingenberg
    Pohl
    [J]. ZEITSCHRIFT DES VEREINES DEUTSCHER INGENIEURE, 1927, 71 : 1888 - 1890
  • [38] Large-scale experiment in the power plant of Scholven
    Jäger, G
    [J]. BWK, 2005, 57 (10): : 36 - 37
  • [39] The large-scale power plant Zschornewitz (Golpa).
    Klingenberg, G
    [J]. ZEITSCHRIFT DES VEREINES DEUTSCHER INGENIEURE, 1919, 63 : 1145 - 1150
  • [40] Water measurement in a large-scale power plant
    Mousson, JM
    [J]. DEUTSCHE MEDIZINISCHE WOCHENSCHRIFT, 1934, 78 : 1343 - 1346