直流微电网能源管理系统

Hassan Hadi H Awaji, Abdulellah Alsulami, Ahmad Awadh Althobiti, A. Alhussainy, Sultan Alghamdi, A. H. Milyani, M.N. Ajour, M. Rawa
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引用次数: 0

摘要

基于可再生能源的直流微电网由于其比交流微电网具有更高的能源效率而越来越受欢迎。此外,直流微电网不需要更多的转换系统和简单的连接到电池系统,在本文中,我们将提出有效的能量管理,以光伏为基础的直流微电网。直流微电网由一个光伏发电系统、一个在光伏发电系统失效时增强发电能力的BSS和一个作为动态负载连接的直流并联电机组成。电池储能系统(BSS)有助于稳定由可再生能源的随机性以及微电网内需求变化引起的系统不稳定性。为了从光伏阵列中提取最大功率,我们将实现最大功率点跟踪系统(MPPTs)。BSS通过双向DC-DC降压-升压转换器为负载供电。BSS在紧急情况下投入运行,在不同天气条件下光伏系统无法产生需求负荷时,电池可以提供备用。MG将使用MATLAB/Simulink进行仿真。我们将模拟各种天气条件下的直流微电网,以了解电池储能系统(BSS)在发电量减少负载需求时的行为,并了解BSS如何帮助系统稳定,以应对可再生能源的随机性以及微电网内的需求变化造成的不稳定。我们将看到直流并联电机在全负载、半负载和四分之一负载下运行时的电转矩的影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Energy Management System for Direct current (DC) Microgrid
Renewable energy-based direct current microgrids are becoming popular due to their higher energy efficiency than AC microgrids. In addition to the DC Microgrid not required more conversion systems and simple to connected to Battery systems In this paper we will propose effective energy management for a photovoltaic-based DC microgrid. The DC microgrid consist of a Photovoltaic Power System, a BSS to enhance the generation of power in the inability of a PV system, and a DC shunt motor connected as dynamic load. Battery storage system (BSS) helps to stabilize the system against the instability caused by stochastic nature of the renewable sources as well as demand variation within a microgrid To extract the maximum power from the PV array, we will implement a maximum power point tracking system (MPPTs). The BSS feeds the load through a bidirectional DC-DC buck-boost converter. The BSS is put into operation when the MG is in an emergency where the battery can provide backup when the PV system fails to generate the demand load under different weather conditions. The MG will be simulated using MATLAB/Simulink. We will exanimate the DC microgrid under various weather conditions to see the behavior of Battery storage system (BSS) when the power generation less the load demand and to see how the BSS helps the stabilization of the system against the instability caused by stochastic nature of the renewable sources as well as demand variation within a microgrid. We Will see the affects shown in electrical torque of DC shunt motor when the motor operates under full, half and quarter of the load.
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