Two-layer Programming Model Considering Reactive Power Cooperation for Distributed Renewable Energy in Distribution Network

doi:10.3969/j.issn.1000-7229.2018.06.011

Abstract

Abstract: ABSTRACT： The matching degree between large-scale integration of distributed renewable energy （DRE） and the existing control ability of distribution network has a great influence on the consumption of DREs. Conventionally, the planning of DREs didnt take the existing reactive power resources into account, which lowers the facility utilization. In operation, although DREs served as the voltage control measure, their consumption at a high proportion level didnt realize. Thus a two-layer model considering the existing reactive power resources will be adopted to maximize the profit of the DREs and improve the voltage quality of distribution network. Case study in the modified IEEE 33-bus distribution network demonstrates the rationality and effectiveness of the proposal.

Key words: KEYWORDS： , reactive power resources, distributed renewable energy （DRE）, two-layer programming model, voltage quality, consumption of distributed renewable energy

CLC Number:

GUO Yanlin，LIU Junyong，TANG Yonghong，XU Lixiong，WEI Zhenbo，XIANG Yue，ZHOU Chunyan . Two-layer Programming Model Considering Reactive Power Cooperation for Distributed Renewable Energy in Distribution Network[J]. Electric Power Construction, 2018, 39(6): 80-.

References

［1］LU X，MICHAEL B M，PENG W，et al．Challenges faced by China compared with the US in developing wind power ［J］．Nature Energy，2016，1（6）：1-12．

［2］江洁，王主丁，张宗益，等．基于有效生成初始种群的配电网无功规划优化遗传算法［J］．电网技术，2009，33（8）：60-65.

JIANG Jie，WANG Zhuding，ZHANG Zongyi，et al．Effective initial population generation based genetic algorithm for optimal capacitor placement in radial distribution networks ［J］．Power System Technology，2009，33（8）：60-65．

［3］王佳贤，程浩忠，胡泽春．多负荷水平下的配电网无功优化规划方法［J］．电网技术，2008，32（19）：56-61.

WANG Jiaxian，CHENG Haozhong，HU Zechun．Optimal reactive power planning for distribution systems considering multi-load levels ［J］．Power System Technology，2008，32（19）：56-61．

［4］夏澍，周明，李庚银．分布式电源选址定容的多目标优化算法［J］．电网技术，2011，35（9）：115-121.

XIA Shu，ZHOU Ming，LI Gengyin．Multi-objective optimization algorithm for distributed generation locating and sizing ［J］．Power System Technology，2011，35（9）：115 - 121．

［5］张节潭，程浩忠，姚良忠，等．分布式风电源选址定容规划研究［J］．中国电机工程学报，2009，29（16）：1-7.

ZHANG Jietan，CHENG Haozhong，YAO Liangzhong，et al．Study on siting and sizing of distributed wind generation ［J］．Proceedings of the CSEE，2009，29（16）：1-7．

［6］张沈习，李珂，程浩忠，等．主动管理模式下分布式风电源选址定容规划［J］．电力系统自动化，2015，39（9）：208-214.

ZHANG Shenxi，LI Ke，CHENG Haozhong，at al．Siting and sizing planning of distributed wind generators under active management mode ［J］．Automation of Electric Power Systems，2015，39（9）：208-214．

［7］OCHOA L F，KEANE A，HARRISON G P．Minimizing the reactive support for distributed generation：Enhanced passive operation and smart distribution networks［J］．IEEE Transactions on Power Systems，2011，26（4）：2134-2142．

［8］MAHMOUD K，YORINO N，AHMED A．Optimal distributed generation allocation in distribution systems for loss minimization ［J］．IEEE Transactions on Power Systems，2015，31（2）：960-969．

［9］李亮，唐巍，白牧可，等．考虑时序特性的多目标分布式电源选址定容规划［J］．电力系统自动化，2013，37（3）：58-63.

LI Liang，TANG Wei，BAI Muke，et al．Multi-objective locating and sizing of distributed generators based on time-sequence characteristics ［J］．Automation of Electric Power Systems，2013，37（3）：58-63．

［10］ATTWA Y M，EL-SAADANY E F．Reliability based analysis for optimum allocation of DG ［C］//Electrical Power Conference, 2007. EPC 2007. IEEE Canada．Montreal, Que., Canada: IEEE, 2008 :25-30.

［11］SHAABAN M F，ATWA Y M，EL-SAADANY E F．DG allocation for benefit maximization in distribution networks ［J］．IEEE Transactions on Power Systems，2013，28 （2）：639-649．

［12］邓威，李欣然，刘志勇，等．考虑无功补偿影响因素的间歇性分布式电源综合优化配置［J］．中国电机工程学报，2012,32（10）：80-88.

DENG Wei，LI Xinran，LIU Zhiyong，et al．Comprehensive optimal allocation of intermittent distributed generation considering reactive power compensation ［J］．Proceedings of the CSEE，2012，32（10）：80-88．

［13］温俊强，曾博，张建华．市场环境下考虑各利益主体博弈的分布式电源双层规划方法［J］．电力系统自动化，2015，39（15）：61-67.

WEN Junqiang，ZENG Bo，ZHANG Jianhua．Bi-level programming method for distributed generator considering stakeholders game relationship in an electricity market environment ［J］．Automation of Electric Power Systems，2015，39（15）：61-67．

［14］高红均，刘俊勇．考虑不同类型DG和负荷建模的主动配电网协同规划［J］．中国电机工程学报，2016，36（18）：4911-4922.

GAO Hongjun，LIU Junyong．Coordinated planning considering different types of DG and load in active distribution network ［J］． Proceedings of the CSEE，2016，36（18）：4911-4922．

［15］曹娜，赵海翔，戴慧珠．常用风电机组并网运行时的无功与电压分析［J］．电网技术，2006，30（22）：91-94.

CAO Na，ZHAO Haixiang，DAI Huizhu．Analysis on reactive power and voltage of commonly used wind turbines interconnected to power grid ［J］．Power System Technology，2006，30（22）：91-94．

［16］郎永强，张学广，徐殿国，等．双馈电机风电场无功功率分析及控制策略［J］．中国电机工程学报，2007，27（9）：77-82.

LANG Yongqiang，ZHANG Xueguang，XU Dianguo，et al．Reactive power analysis and control of doubly fed induction generator wind farm ［J］．Proceedings of the CSEE，2007，27（9）：77-82．

［17］赵晶晶，符杨，李东东．考虑双馈电机风电场无功调节能力的配电网无功优化［J］．电力系统自动化，2011，35（11）：33-38.

ZHAO Jingjing，FU Yang，LI Dongdong．Reactive power optimization in distribution network considering reactive power regulation capability of DFIG wind farm ［J］．Automation of Electric Power Systems，2011，35（11）：33-38．

［18］张莉梅，唐巍．计及分布式电源的配电网前推回代潮流计算［J］．电工技术学报，2010，25（8）：123-130.

ZHANG Limei，TANG Wei．Back/forward sweep power flow calculation method of distribution networks with DGs ［J］．Transactions of China Electrotechnical Society，2010，25（8）：123-130．

［19］鲍薇，胡学浩，何国庆，等．分布式电源并网标准研究［J］．电网技术，2012，36（11）：46-52.

BAO Wei，HU Xuehao，HE Guoqing，et al．Study on standard for grid-integration of distributed resources［J］．Power System Technology，2012，36（11）：46-52．

［20］张勇军，任震．电力系统动态无功优化调度的调节代价［J］．电力系统自动化，2005，29（2）：34-38.

ZHANG Yongjun，REN Zhen．Readjusting cost of dynamic optimal reactive power dispatch of power systems ［J］．Automation of Electric Power Systems，2005，29（2）：34-38．

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