基于合作微电网的温室气体排放和变电站变压器拥塞同步管理框架

M. Ansari, M. Ansari, A. Asrari
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引用次数: 2

摘要

本文提出了一种配电网中微电网之间的合作框架,以系统地管理污染和变电站变压器拥塞(PSTC)。在第一层,每个MG以成本最小化为目标,对前一天的单位承诺单独进行优化。在第二层,mgg之间相互协作,从而实现有效的PSTC管理。本文提出的微电网聚合器(MGA)对微电网的合作机制进行监督,实现以下目标:1)最小化从配电系统运营商(DSO)购买的电力,以实现变电站变压器(ST)的拥塞管理;2)控制对化石燃料的依赖,以防止过量的二氧化碳排放;3)每个微电网的敏感数据仅与MGA共享,其他微电网运营商无法访问这些信息。最后,在第三层,DSO从MGAs接收修改后的调度,以确保不违反整个系统的技术约束。如果存在这种违反,DSO将强制执行减载。在由柴油机分布式发电(DEDG)机组、风力发电机组(wtdg)、光伏发电机组(pvdg)和电动汽车(EV)站改造的33总线IEEE配电网上验证了该框架的有效性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Framework for Simultaneous Management of Greenhouse Gas Emission and Substation Transformer Congestion via Cooperative Microgrids
This paper proposes a cooperative framework among microgrids (MGs) in a distribution power network to systematically manage pollution and substation transformer congestion (PSTC). In the first layer, each MG conducts an optimization individually for the day-ahead unit commitment with the objective of cost minimization. In the second layer, the MGs cooperate with each other to result in an effective PSTC management. The proposed operator in this paper, named microgrids aggregator (MGA), supervises the cooperative mechanism of MGs such that 1) purchased power from the distribution system operator (DSO) is minimized to result in congestion management of substation transformer (ST), 2) reliance on fossil fuels is controlled to prevent excessive CO2 emission, 3) sensitive data of each MG is only shared with MGA and other MG operators will have no access to such information. Finally, in the third layer, DSO receives the modified schedules from MGAs to ensure no technical constraint in the entire system is violated. If such a violation exists, a mandatory load shedding will be implemented by DSO. The effectiveness of the introduced framework is validated on the 33-bus IEEE distribution network modified with diesel-engine distributed generation (DEDG) units, wind turbine DGs (WTDGs), photovoltaic DGs (PVDGs), and electric vehicles (EV) stations.
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