带冷库的孤立微电网的规模和运行

Selmane Dakir, Ioannis Boukas, V. Lemort, B. Cornélusse
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引用次数: 2

摘要

由于技术的发展和智能控制的进步,可再生能源的间歇性生产可以在智能微电网的背景下更好地在当地利用。能量存储在实现这一任务中起着关键作用,而电池是最合适的候选者。在本文中,提出了一种补充解决方案,在冷库中使用多余的电力来生产冰,当冰融化时,提供冷却需求。为了模拟整个系统的运行,考虑了每个部件的详细模型。本文的目标是推导出不同组件的最佳尺寸,以产生最小的平均电力成本。将所描述的方法应用于马拉喀什的一个实际案例研究,结果表明,在孤立的微电网环境下,冷藏能够降低总能源成本。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Sizing and Operation of an Isolated Microgrid with Cold Storage
Due to the technological developments and the advances of smart control, intermittent production from renewable energy sources can be better exploited locally in the context of a smart microgrid. Energy storage has a key role in achieving this task and batteries are the most suitable candidate. In this paper, a complementary solution is presented where excess electricity is used in a cold storage to produce ice which, when melting, supplies the cooling demand. A detailed model of each component is considered in order to simulate the operation of the entire system. The goal of this paper is the derivation of the optimal size of the different components to yield the minimum levelized cost of electricity. The methodology described is applied to a real case study in Marrakesh, and results illustrate that cold storage is able to reduce the total cost of energy in the context of an isolated microgrid.
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