电网边缘动态电压无功控制方案缓解大规模电动汽车充电基础设施集成对系统的影响

Roozbeh Karandeh, Hong Chun, D. Tholomier
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引用次数: 0

摘要

电动汽车(EV)的销售在世界各地蓬勃发展。将大量的电动汽车充电基础设施集成到传统的配电网络中可能会导致一些系统漏洞,包括系统电压下降。本文提出动态无功控制器(DVC)作为一种低成本、无线替代(NWA)和分布式控制解决方案,以减轻对系统电压的影响。在这种方法中,单相dvc被部署在低压变压器的二级位置,通过动态VAr注入提供电压支持。为了验证DVC的缓解效果,在OpenDSS中对实际配电网络进行了几个基于场景的时间序列模拟,使用历史负载和EV配置文件,而DVC控制器则在Python中建模。仿真结果证实了DVCs在解决欠压问题和系统电压不平衡方面的显著性能。提出的解决方案是一个有前途的替代昂贵的配电基础设施扩建和机电电压控制设备。
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Grid-Edge Dynamic Volt-VAr Control Solution to Mitigate System Impacts Caused by Vast EV Charging Infrastructure Integration
Electric vehicle (EV) sales are booming everywhere. Extensive EV charging infrastructure integration into the legacy distribution networks may cause several system vulnerabilities, including system voltage drop. In this paper, Dynamic VAr Controllers (DVC) are proposed as a cost-effective, non-wires alternative (NWA) and distributed control solution to mitigate the impacts on system voltage. In this approach, the single-phase DVCs are deployed at the secondary of the service transformers at locations with lowest voltages to provide voltage support through dynamic VAr injection. To verify the mitigating effect of DVCs, several scenario-based time-series simulations are performed in OpenDSS on actual distribution networks, using historical load and EV profiles, while the DVC controller is modeled in Python. Simulation results confirm the significant performance of DVCs in resolving the under-voltage issue, as well as system voltage unbalance. The proposed solution is a promising alternative to costly distribution infrastructure expansion and electro-mechanical voltage control devices.
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