Synthesis, Analysis, and Design of a DC-Nanogrid Using Cascaded Converters for Home Applications

R. Haroun, A. E. Aroudi, A. Cid-Pastor, H. Valderrama-Blavi, E. Vidal‐Idiarte, L. Martínez-Salamero
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Abstract

The Photovoltaic (PV) plants combined with energy storage systems are one of the promising solutions of full utilization of renewable energies. These main elements can be used to implement a dc nanogrid (dc-NG) which is a power distribution system for a single house/small building, with the ability to connect or disconnect from other power grids. Moreover, the switching dc-dc converters are widely used to interface the dc output of renewable energy resources with power distribution systems in order to facilitate the use of energy at the customer side in a nanogrid. In the case of residential PV applications, the high conversion ratio is usually required, in order to adapt the low output voltages of PV modules to a dc bus voltage, while dealing with the appropriate impedance matching. In this paper, cascaded step-up converters for residential applications are used to step up the PV panel voltage to the dc bus voltage of a dc-NG. This dc-NG is based on conventional control architecture for residential applications. The used controller is based on the voltage and current control using Pulse Width Modulation (PWM) controller. The dc distribution bus is supplied by PV panels, ac utility and a storage battery. The storage battery is connected to the main dc bus through a dc-dc bidirectional converter (BDC). Numerical simulations of a case study corroborate the theoretical predictions of the paper.
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家用级联变换器直流纳米栅格的合成、分析与设计
光伏电站与储能系统相结合是充分利用可再生能源的一种很有前途的解决方案。这些主要元件可用于实现直流纳米电网(dc- ng),这是一种用于单个房屋/小型建筑物的配电系统,具有连接或断开与其他电网的能力。此外,开关dc-dc变换器被广泛用于将可再生能源的直流输出与配电系统相连接,以促进纳米电网中客户端能源的使用。在住宅光伏应用中,通常需要高转换率,以使光伏组件的低输出电压适应直流母线电压,同时处理适当的阻抗匹配。在本文中,用于住宅应用的级联升压转换器用于将PV面板电压升压到dc- ng的直流母线电压。该dc-NG基于住宅应用的传统控制体系结构。所使用的控制器是基于电压和电流的控制,采用脉宽调制(PWM)控制器。直流配电母线由光伏板、交流公用设施和蓄电池供电。蓄电池通过dc-dc双向变换器(BDC)与直流母线连接。一个实例的数值模拟证实了本文的理论预测。
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