面向分布式光伏消纳的需求侧灵活资源与输配协同规划

刘海丞, 王旭阳, 李红军, 郭玥, 聂铭, 常诗扬, 李志远

电力建设 ›› 2025

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PDF(1231 KB)
电力建设 ›› 2025

面向分布式光伏消纳的需求侧灵活资源与输配协同规划

  • 刘海丞1, 王旭阳1, 李红军1, 郭玥1, 聂铭1, 常诗扬1, 李志远2
作者信息 +

Multiple Flexible Resources and Transmission and Distribution Collaborative Planning for Distributed PV Consumption

  • LIU Haicheng1, WANG Xuyang1, LI Hongjun1, GUO Yue1, NIE Ming1, CHANG Shiyang1, LI Zhiyuan2
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摘要

【目的】为缓解我国新型电力系统转型中凸显的分布式光伏消纳和电网调峰困难压力,提出了一种灵活资源与输配协同规划方法。【方法】首先,为准确描述输配电网的运行特征,并简化模型的复杂度,对输电网层实现变电站的精细化建模,在配电网层对配电线路及其所带的负荷和分布式光伏的位置采取了等效化处理,同时在配电网层整合需求响应、分布式储能和负荷转供三类灵活资源,确保输电网和配电网之间的协同配合;其次,引入负荷转供约束以及变电站潮流反向限制条件,以满足N-1故障下的保供和消纳需求;最后,针对海量N-1故障待选集造成的计算困难,采用状态评估和割集打包的策略改进传统的C&CG算法,从而实现模型的快速求解。【结果】XJTU-ROTS区域C算例表明,系统新能源消纳率平均提高4.67%,反向潮流风险由5.45%降低至4.86%。【结论】所提方法可以在保障负荷可靠供应的基础上有效提高新能源的消纳率,为电力系统规划提供了新思路。

Abstract

[Objective] To alleviate the pressure of difficulties in the consumption of distributed photovoltaic power and peak shaving of the power grid that have become prominent during the transformation of China's new power system, a flexible resources and transmission and distribution collaborative planning method is proposed. [Methods] Firstly, in order to accurately describe the operational characteristics of the transmission and distribution network and simplify the complexity of the model, the refined modeling of substations is achieved at the transmission network layer. At the distribution network layer, the positions of distribution lines, the loads they carry, and distributed photovoltaic systems are treated equivalentially. Meanwhile, three types of flexible resources, namely demand response, distributed energy storage, and load transfer, are integrated at the distribution network layer. Ensure the coordinated cooperation between the transmission grid and the distribution grid; Secondly, load transfer supply constraints and reverse power flow restriction conditions of substations are introduced to meet the supply guarantee and consumption demands under N-1 faults. Finally, in view of the computational difficulty caused by the massive N-1 fault candidate set, the traditional C&CG algorithm is improved by adopting the strategies of state evaluation and cut set packaging, thereby achieving the rapid solution of the model. [Results] The XJTU-ROTS area C example shows that the system 's new energy consumption rate has increased by an average of 4.67%, and the reverse flow risk has decreased from 5.45% to 4.86%. [Conclusions] The proposed method can effectively increase the consumption rate of new energy on the basis of ensuring the reliable supply of load, providing a new idea for the planning of power systems.

关键词

灵活资源 / 输配协同 / N-1故障 / 变电站潮流反向 / C&CG算法

Key words

flexible resources / transmission and distribution collaborative planning / N-1 fault / reverse power flow restriction conditions / C&CG algorithm

引用本文

导出引用
刘海丞, 王旭阳, 李红军, 郭玥, 聂铭, 常诗扬, 李志远. 面向分布式光伏消纳的需求侧灵活资源与输配协同规划[J]. 电力建设. 2025
LIU Haicheng, WANG Xuyang, LI Hongjun, GUO Yue, NIE Ming, CHANG Shiyang, LI Zhiyuan. Multiple Flexible Resources and Transmission and Distribution Collaborative Planning for Distributed PV Consumption[J]. Electric Power Construction. 2025
中图分类号: TM715   

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国家电网公司总部科技项目(4000-202424078A-1-1-ZN)

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