Transmission system planning considering solar distributed generation penetration

P. Gomes, J. Saraiva
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引用次数: 16

Abstract

In recent years, power systems have been watching important advancements related with Plug-in-Electrical Vehicles (PEVs), Demand Side Management (DSM), Distributed Generation (DG), Microgrid and Smart Grid installations that directly affect distribution networks while impacting indirectly on Transmission studies. These changes will lead to an extra flexibility on the transmission-distribution boundary and to a significant modification of the load patterns, that are an essential input to planning studies. In this scope, this paper describes a multiyear Transmission Expansion Planning (TEP) solved by Evolutionary Particle Swarm Optimization (EPSO) and incorporating the impact of solar DG penetration. The primary substation load profiles and the solar generation profiles are taken into account on the planning problem. The numerical simulations were conducted using the IEEE 24 bus reliability test system in which the planning horizon is 3 years and the load growth is 2.5 % per year. If demand and solar DG peaks are coincident, then the liquid demand seen by the transmission network gets reduced enabling a reduction of investment costs. In the tested cases, these peaks were not coincident so that the optimal expansion plan remains unchanged even though the injected power from DG is large. This stresses the fact that solar DG may not on an isolated way contribute to alleviate the demand seen by transmission networks but should be associated with storage devices or demand side management programs.
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考虑太阳能分布式发电渗透率的输电系统规划
近年来,电力系统在插电式电动汽车 (PEV)、需求侧管理 (DSM)、分布式发电 (DG)、微电网和智能电网安装方面取得了重大进展,直接影响到配电网络,同时间接影响到输电研究。这些变化将导致输电-配电边界更加灵活,并显著改变负荷模式,而负荷模式是规划研究的重要输入。在此范围内,本文介绍了通过进化粒子群优化 (EPSO) 解决的多年期输电扩展规划 (TEP),并纳入了太阳能 DG 渗透率的影响。在规划问题中考虑了主变电站负荷曲线和太阳能发电曲线。利用 IEEE 24 总线可靠性测试系统进行了数值模拟,其中规划期限为 3 年,负荷年增长率为 2.5%。如果需求峰值和太阳能 DG 峰值相吻合,那么输电网络的液体需求量就会减少,从而降低投资成本。在测试案例中,这些峰值并不重合,因此即使 DG 的注入功率很大,最佳扩展计划也不会改变。这就强调了一个事实,即太阳能 DG 并不能孤立地缓解输电网络的需求,而应与储能设备或需求侧管理计划相结合。
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