直流配电网的最优需求响应

Hamed Mohsenian Rad, A. Davoudi
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引用次数: 15

摘要

直流(DC)电力系统近年来被认为是一种很有前途的配电网和微电网技术。通过消除不必要的转换阶段,直流配电系统可以实现本地直流设备(如光伏电池和电池)的无缝集成。此外,使用直流技术可以克服交流(AC)配电系统的几个缺点,如同步要求、无功补偿和谐波。因此,在本文中,我们为设计直流配电网的需求响应方案迈出了第一步。通过调整各种电力电子负载的内部参数,保证直流配电系统的可靠、高效运行。在这方面,我们首先提出了一个基于优化的直流配电网络需求响应基础。然后,我们设计了一种定价机制,以分布式方式强制执行最优需求响应。模拟结果提出,以评估性能,并获得洞察提出的需求-响应范式。
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Optimal demand response in DC distribution networks
Direct current (DC) power systems have recently been proposed as a promising technology for distribution networks and microgrids. By eliminating unnecessary conversion stages, DC distribution systems can enable seamless integration of natively DC devices such as photovoltaic cells and batteries. Moreover, using DC technologies can overcome several disadvantages of alternating current (AC) distribution systems, such as synchronization requirements, reactive power compensation, and harmonics. Therefore, in this paper, we take the first steps towards designing demand response programs for DC distribution networks. We seek to adjust the internal parameters of various power electronics loads to assure reliable and efficient operation of the DC distribution system. In this regard, we first present an optimization-based foundation for demand response in DC distribution networks. Then, we devise a pricing mechanism to enforce optimal demand response in a distributed fashion. Simulation results are presented to assess the performance and to gain insights into the proposed demand-response paradigm.
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