塞浦路斯可再生能源削减:技术限制和解决办法的审查

P. Therapontos , R. Tapakis , P. Aristidou , A.G. Charalambides
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摘要

可再生能源(RES)在塞浦路斯等小型、孤立的电力系统中的日益普及,由于技术限制导致了严重的限电,造成了大量的能源损失和经济影响。本研究分析了塞浦路斯可再生能源弃风的驱动因素、趋势和缓解策略,塞浦路斯的年弃风率从2%(2022年)飙升至13%(2024年),在低需求时期,每月光伏(PV)弃风超过28%。整个系统的限制,特别是传统发电机的最小惯性要求和斜坡速率限制,是主要的削减原因,塞浦路斯的季节性需求变化和780兆瓦的光伏装机容量加剧了这一点。历史数据显示,从2022年到2024年,高弃风天数(≥200兆瓦时)增加了500%,模拟预测,到2027年,随着光伏容量接近1吉瓦,高弃风天数将进一步增加。操作程序优先考虑削减大规模可再生能源装置,从而引起不成比例受影响的利益相关者的公平关切。评估的缓解策略包括基础设施的增强,如1吉瓦的高压直流大海互联,改造老化的工厂作为同步冷凝器以增强惯性,以及能源存储系统(ESS)等运营措施-部署80兆瓦/240兆瓦时的电池可以在2025年之前将弃电率降低到10%。需求侧灵活性,特别是弹性电动汽车充电,以及人工智能增强的预测被认为是具有成本效益的补充。然而,降低最低稳定发电水平(MSGL)以适应更高的RES渗透会带来频率不稳定的风险,正如瞬态模拟所示,在发电机停机期间,临界频率变化率(RoCoF)阈值超过1hz /s。该研究得出结论,将电网加固、ESS部署和市场驱动的需求响应相结合的混合方法对于使塞浦路斯的可再生能源增长与欧盟脱碳目标保持一致,同时确保电网可靠性至关重要。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
RES curtailments in Cyprus: A review of technical constraints and solutions
The increasing penetration of renewable energy sources (RES) in small, isolated power systems such as Cyprus has led to significant curtailments due to technical constraints, resulting in substantial energy losses and economic impacts. This study analyzes the drivers, trends, and mitigation strategies for RES curtailments in Cyprus, where annual curtailment rates surged from 2 % (2022) to 13 % (2024), with monthly photovoltaic (PV) curtailment exceeding 28 % during low-demand periods. System-wide constraints, particularly minimum inertia requirements and ramp rate limitations of conventional generators, dominate curtailment causes, exacerbated by Cyprus's seasonal demand variability and a 780 MW PV installed capacity. Historical data reveal a 500 % increase in high-curtailment days (≥200 MWh) from 2022 to 2024, with simulations forecasting further escalation as PV capacity approaches 1 GW by 2027. Operational procedures prioritize curtailing large-scale RES installations first, thus raising equity concerns for disproportionately affected stakeholders. Mitigation strategies evaluated include infrastructure enhancements like the 1 GW HVDC Great Sea Interconnector and retrofitting aging plants as synchronous condensers to bolster inertia, alongside operational measures such as energy storage systems (ESS)—deploying 80 MW/240 MWh batteries could reduce curtailments to 10 % by 2025. Demand-side flexibility, particularly elastic electric vehicle charging, and AI-enhanced forecasting are identified as cost-effective supplements. However, reducing the minimum stable generation level (MSGL) to accommodate higher RES penetration risks frequency instability, as demonstrated by transient simulations showing critical rate of change of frequency (RoCoF) thresholds exceeding 1 Hz/s during generator outages. The study concludes that a hybrid approach combining grid reinforcement, ESS deployment, and market-driven demand response is essential to align Cyprus's RES growth with EU decarbonization targets while ensuring grid reliability.
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