可再生能源大量渗透的约旦电力系统动态频率分析:从COVID-19封锁中吸取的教训

Suad S. Al Mattar, S. Alnaser, Sereen Z. Althaher
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引用次数: 1

摘要

约旦日益依赖可再生能源,特别是太阳能光伏(PV)来满足能源消费需求,这对电力系统运营商提出了业务挑战,以应对系统净需求的大幅下降和同步惯性的减少。在可再生能源的渗透增加以满足未来几年国家能源目标之前,这些挑战预计不会变得至关重要。然而,采取封锁措施来限制COVID-19的爆发,再加上光伏注入,降低了系统的净需求,特别是在2020年春季的白天,就像未来光伏渗透率高的预期水平一样。因此,未来可再生能源对系统安全的重大渗透可以根据锁定期间的运行条件更好地理解。特别是,在运行低惯性电力系统时可能发生的紧急事件中,评估系统频率是否充足是很重要的。为此,本文使用power Factory软件对约旦电力系统在封锁期间进行了详细的动态频率分析。研究结果强调了可再生能源弃电的重要性,以保持足够的同步惯性水平,以在系统与邻国没有互连的情况下保持安全。然而,决定适当的弃电水平需要进行动态分析,以确保发电突发事件期间的频率变化率(RoCoF)和最小频率水平不会触发低频减载(UFLS)继电器。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Dynamic Frequency Analysis of the Jordanian Power System with Significant Penetration of Renewables: Lessons Learnt from the COVID-19 Lockdowns
The increasing dependence on renewable energy particularly solar Photovoltaic (PV) to supply energy consumption needs in Jordan has placed operational challenges on the power system operator to cope with the significant drop in the system’s net-demand and the reduction in synchronous inertia. These challenges were not expected to become critical until the penetration of renewables increases to meet future national energy targets in the forthcoming years. However, the adoption of lockdowns to restrict the outbreak of COVID-19 combined with PV injections reduced the system’s net-demand particularly during daytime in spring 2020 like expected levels in the future with high PV penetration. Thus, the implications of future significant penetration of renewables on system security could be better understood based on the operating conditions during lockdowns. In particular, it is important to assess the system’s frequency adequacy during emergency events that might be occurred whilst running a low-inertia power system. To do so, this paper provides a detailed dynamic frequency analysis of the Jordanian power system during lockdowns using Power Factory software. The results highlight the importance of energy curtailment of renewables to maintain adequate level of synchronous inertia to maintain security when the system is islanded without interconnections to neighboring countries. However, deciding the proper level of curtailment requires performing dynamic analysis to ensure that both the Rate of Change of Frequency (RoCoF) and the minimum frequency level during generation contingency events will not trigger the Under Frequency Load Shedding (UFLS) relays.
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