电动汽车充电器的改进均方根模型:多厂商可变性平衡故障的求解

IF 3.3 Q3 ENERGY & FUELS
Muneki Masuda;Hayato Satoh
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引用次数: 0

摘要

日本的目标是到2050年实现碳中和,到2035年实现电动汽车100%销售。电动汽车充电需求的增加改变了负荷需求的特性,进而影响电力系统的稳定性。因此,需要一个考虑电动汽车充电器特性的负载模型。通过平衡故障后的均方根分析,开发并验证了电动汽车充电器模型。该模型在一定程度上代表了平衡故障引起的电压和频率响应。然而,它只是基于一个有代表性的制造商,模型的通用性和实用性需要改进。本文对不同厂家生产的电动汽车充电器的响应进行了实验研究。对每个电动汽车充电器的响应进行了表征。对所建立的模型进行了改进,以表示每个电动汽车充电器的响应。通过比较和验证平衡故障后的测量和模拟响应,确定了每种充电器类型的模型参数。实测响应和模拟响应的良好匹配表明,所建立的模型和所识别的参数准确地模拟了平衡故障后的响应。该模型和所识别的参数可以更准确地评估电动汽车充电器对电力系统稳定性的影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Enhanced Root Mean Square Model for Electric Vehicle Chargers: Addressing Balanced Faults With Multi-Manufacturer Variability
Japan aims to achieve carbon neutrality by 2050, with a target of 100% sale of electric vehicles (EVs) by 2035. An increase in EV charging demand changes the characteristics of load demand and in turn, affects power system stability. Therefore, a load model that considers EV charger characteristics is required. We had developed and verified an EV charger model through a root mean square analysis following balanced faults. To an extent, this model represents the voltage and frequency responses caused by balanced faults. However, it is based on only one representative manufacturer, and the model’s versatility and practicality need improvement. This study experimentally investigated the responses of EV chargers manufactured by several manufacturers. Each EV charger’s response was characterized. The developed model was improved to represent the response of each EV charger. The model parameters for each charger type were identified by comparing and validating the measured and simulated responses following balanced faults. An excellent match between the measured and simulated responses demonstrated that the developed model and the identified parameters accurately simulated the response following balanced faults. This model and the identified parameters can enable a more accurate assessment of EV charger impact on power system stability.
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来源期刊
CiteScore
7.80
自引率
5.30%
发文量
45
审稿时长
10 weeks
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