Research on Charging Behaviour Strategies for Electric Vehicles Based on Machine Learning
DOI:
https://doi.org/10.54097/w8zzev05Keywords:
Charging behaviour strategies, Electric vehicles, Machine learning.Abstract
With the popularity of electric vehicles, accurately predicting charging demand in the workplace has become the key to optimising the grid load and improving the operational efficiency of charging stations. To cope with the uncertainty of users' charging behaviours, this study is based on real charging records from the ACN-Data platform and uses the Random Forest Model to systematically identify the core features that affect charging energy. The analysis results show that charging duration is a decisive factor in predicting charging energy, with a contribution of more than sixty percent. The amount of charging requested by the user is also crucial, with a contribution of twenty-one per cent. This suggests that the user's own charging behavioural characteristics are central to driving demand. This study further provides key insights and data to support the development of high utility and low computational cost charging management strategies. In the future, lightweight random forest models can be explored to be embedded in the edge computing units of charging stations for intelligent scheduling decisions. Building an adaptive charging network with user behaviour prediction as the core will be a key direction to achieve grid interaction optimization and enhance user experience.
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[1] Zhang Y, et al. A comparative study of statistical vs. machine-learning methods for EV charging-load forecasting. IEEE Transactions on Smart Grid, 2022, 13(4): 3123-3135.
[2] Wang Z, Wang J. Short-term charging load forecasting using hybrid SVM-XGBoost with adaptive weighting. Applied Energy, 2021, 304: 117611.
[3] Liu Siyuan, et al. Electric vehicle charging load forecasting based on deep belief network. Proceedings of the CSEE, 2023, 43(5): 1823-1832.
[4] Luo X, et al. Non-linear effects of ambient temperature on electric vehicle charging energy: A quantile regression approach. Energy, 2021, 237: 121589.
[5] Wang Lei, et al. A modified electric vehicle charging load model considering ambient temperature sensitivity. Power System Technology, 2020, 44(9): 3382-3389.
[6] Lee J, Lee H. ACN-Data: One-year publicly available dataset of 2.1 million charging sessions in California. Scientific Data, 2022, 9: 412.
[7] Zhang Hongcai, et al. Charging behavior profiling based on full log data from public charging operators in Shanghai. Electric Power Information and Communication Technology, 2023, 21(3): 45-52.
[8] Zhao P, et al. Identifying key determinants of electric vehicle charging energy using random forest regression: Evidence from 50,000 charging events. Energy Reports, 2021, 7: 4400-4409.
[9] Chen Qiujie, et al. Importance analysis of influencing features for electric vehicle charging energy based on random forest. High Voltage Engineering, 2022, 48(8): 3101-3109.
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