自然灾害下基于可靠性的微电网系统优化设计

Zhetao Chen, Zhimin Xi
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引用次数: 0

摘要

提出了自然灾害下微电网系统的可靠性优化设计方法。目标是确定微电网中发电机的最小数量及其分布,以保证系统在输电线路随机故障情况下的可恢复性(或弹性)和运行效率。采用潮流分析和蒙特卡罗模拟相结合的方法进行不确定性传播分析,量化了输电线路随机故障情况下系统的可恢复性分布和输电效率分布。与不考虑系统中各种不确定因素的确定性方案相比,发电机最优分配方案的可靠性要高得多。所提出的工作通过一个12总线电源系统进行了演示。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Reliability-Based Optimal Design of a Micro-Grid System Under Natural Disasters
This paper proposes reliability-based optimal design of a micro-grid system under service disruptions due to natural disasters. The objective is to determine the minimum number of generators and their distributions in the micro-grid so that the system’s recoverability (or resilience) and operation efficiency can be guaranteed under random failure scenarios of the power transmission lines. Power flow analysis combing with the Monte Carlo simulation (MCS) are used for uncertainty propagation analysis to quantify the system’s recoverability distribution and the transmission efficiency distribution under random failure scenarios of the transmission lines. The optimal allocation of the generators is much more reliable compared to the deterministic solutions without considering various uncertainties in the system. The proposed work is demonstrated through a 12-bus power system.
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