先进的微电网作为配电网络主动管理的组成部分

J. Lopes
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引用次数: 17

摘要

微电网可以定义为连接小型模块化发电系统的低压配电系统。在某种意义上,微电网通过低压配电网对应于电力负荷和小型发电系统的关联。这意味着负载和电源在物理上是接近的,因此微电网可以与例如小城市地区、工业或大型购物中心的网络相对应。就目前可用的技术而言,微型发电系统可以包括几种类型的设备,如燃料电池,可再生能源发电,如风力涡轮机或光伏系统,由天然气或生物燃料驱动的微型涡轮机(通常在25-100千瓦范围内)。除了低压配电网络、微型发电设备和电力负荷外,微电网还可能包括存储设备(如电池、超级电容器和飞轮)、网络控制和管理系统以及旨在回收余热发电的热回收系统——热电联产应用。从概念的角度来看,微电网(MG)可以被视为电力系统中的一个有源单元,它可以作为一个单一的聚合负载和一个能够提供辅助服务支持网络的聚合电源运行。对于客户来说,它可以被设计成满足他的特殊需求,并提供额外的好处,比如提高电能质量和可靠性,通过热电联产和本地电压支持提高效率。MG可以与主配电网互联运行,也可以在外部故障情况下与主电网断开时自主运行。在这种体系结构中,MG由安装在中压/低压变电站的微电网中央控制器(MGCC)控制和管理。MGCC具有几个关键功能(如负荷预测、需求侧管理、微型发电机经济调度、电压控制等),并领导分层控制系统。位于负载或负载组(LC)的控制器和位于微源(MC)的控制器与MGCC交换信息并控制本地设备。下图描述了具有微源和可控负载的微电网。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Advanced MicroGrids as a component for active management of distribution networks
MicroGrid can be defined as a low voltage distribution system to which small modular generation systems are to be connected. In some sense, a MicroGrid corresponds to an association of electrical loads and small generation systems through a LV distribution network. This means that loads and sources are physically close so that a MicroGrid can correspond for instance to the network of a small urban area, to an industry or to a large shopping center. In terms of the currently available technologies, the microgeneration systems can include several types of devices as fuel cells, renewable generation as wind turbines or PV systems, microturbines (typically in the range of 25–100 kW) powered by natural gas or biofuels. Apart from a LV distribution network, microgeneration devices and electrical loads, a MicroGrid may also include storage equipment (as batteries, ultracapacitors and flywheels), network control and management systems and heat recovery systems aiming at recovering waste heat to power - CHP applications. From the conceptual point of view, a Microgrid (MG) can be regarded as an active cell within the power system that can be operated as a single aggregated load and an aggregated power source capable of delivering ancillary services supporting the network. To the customer it can be designed to meet his special needs and provide additional benefits, such as improved power quality and reliability, increased efficiency through co-generation and local voltage support. A MG can operate interconnected to the main distribution grid, or in an autonomous way, if disconnected from the main grid, in case of external faults. In this architecture the MG is controlled and managed by a MicroGrid Central Controller (MGCC) installed at the MV/LV substation. The MGCC possesses several key functions (such as load forecasting, demand side management, economic scheduling of microgenerators, voltage control, etc.) and heads the hierarchical control system. Controllers located at loads or groups of loads (LC) and controllers located at the microsources (MC) exchange information with the MGCC and control local devices. Next figure describes a microgrid with its microsources and controllable loads.
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