Performance Enhancement of Grid-Off Photovoltaic Pumping System-Quasi Z Source Inverter by Hybrid Battery-Supercapacitor Energy Storage

S. Boukebbous, D. Kerdoun, Noureddine Benbaha, H. Ammar, A. Bouchakour
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引用次数: 2

Abstract

in this paper, a scheme of standalone off-grid solar photovoltaic water pumping system based on quasi z source inverter and battery/supercapacitor hybrid energy storage is proposed. The most challenge in photovoltaic pumping system is how to ensure a higher sufficient useful power in all really meteorological and daily water conditions. The main objective of this study is to improve the reliability of the conventional photovoltaic pumping system by appropriate hybrid combination of battery-supercapacitor energy storage. The quasi z source inverter used in this structure make it possible to establish the simultaneous control of the photovoltaic maximum power and real time motor speed regulation. Also, their structures give the opportunity to integrate several storage systems in parallel with the capacitance in the impedance network. For that, the batteries are used to compensate the long time power lack can be occurred in the installation because it has a high energy density. In other hand, supercapacitors are used to improve the battery lifetime and reduce the life cycle cost of the photovoltaic pumping system, hence, they are integrated to reimburse the transitory moments time produced by fast climatic and pump speed variations because it has a high power density and a large cycle life. The analysis is carried out through simulation in the Matlab™ environment, the results obtained clearly depicts the robustness of the proposed control system and the power flow performance enhancement.
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用混合电池-超级电容储能增强离网光伏泵系统-准Z源逆变器的性能
本文提出了一种基于准z源逆变器和电池/超级电容器混合储能的独立式离网太阳能光伏抽水系统方案。光伏抽水系统面临的最大挑战是如何保证在所有真实气象和日常用水条件下都有较高的足够有用功率。本研究的主要目的是通过适当的电池-超级电容器储能混合组合来提高传统光伏抽水系统的可靠性。该结构采用准z源逆变器,实现了光伏最大功率和电机实时调速的同步控制。此外,它们的结构提供了将多个存储系统与阻抗网络中的电容并联集成的机会。因此,由于电池具有较高的能量密度,因此可用于补偿安装过程中可能出现的长时间缺电。另一方面,利用超级电容器提高电池寿命,降低光伏抽水系统的生命周期成本,因此,由于超级电容器具有高功率密度和大循环寿命,因此将超级电容器集成在一起,以补偿由于气候和泵速快速变化而产生的短暂力矩时间。在Matlab™环境下进行仿真分析,得到的结果清楚地描述了所提出的控制系统的鲁棒性和功率流性能的增强。
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