A series-resonance-based three-port converter with unified autonomous control method in DC microgrids

Panbao Wang, Shuxin Zhang, Dianguo Xu, Xiaonan Lu
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引用次数: 6

Abstract

A three-port converter (TPC) as a compact DC/DC energy conversion unit can effectively integrate renewable energy sources (RESs) and energy storage systems (ESSs) into DC microgrids (MGs). In this paper, a hardware-decoupling approach using series-connected capacitor in a TPC is proposed and studied. In this series-resonance-based TPC, the decoupled power flow model among different ports is derived based on the equivalent model of the converter and the operation principle of the resonant circuit. Considering the characteristics and operation modes of photovoltaic (PV) and energy storage unit (ESU), which are connected at the two input ports of the TPC, a unified control method based on minimum value competition logic is proposed to achieve voltage regulation of the common bus in DC MGs. Experimental results are obtained in different test scenarios to demonstrate the effectiveness of the proposed method.
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基于串联谐振的直流微电网统一自主控制三端口变换器
三端口转换器(TPC)作为一种紧凑的DC/DC能量转换单元,可以有效地将可再生能源(RESs)和储能系统(ess)集成到直流微电网(mg)中。本文提出并研究了一种基于串联电容的TPC硬件解耦方法。在基于串联谐振的TPC中,根据变换器的等效模型和谐振电路的工作原理,推导了不同端口间的解耦潮流模型。针对连接在TPC两个输入口的光伏(PV)和储能单元(ESU)的特点和运行方式,提出了一种基于最小值竞争逻辑的统一控制方法,实现直流mg中公共母线的电压调节。在不同测试场景下的实验结果验证了该方法的有效性。
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