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Analysis improves optimization efficiency in urban environments, suggesting robust site selection amid varying traffic conditions.
With the rapid increase in the number of electric vehicles, the rational placement of battery swapping stations has become a critical issue in optimizing urban transportation infrastructure. This paper proposes a site selection optimization method based on Graph Neural Networks (GNN). By constructing an urban transportation graph model grounded in Points of Interest (POI) and road traffic data, the method analyzes battery swapping station layout plans and validates their robustness and scalability. Taking the main urban area of Nanchang City as a case study, the research integrates data on POI distribution and land-use functional diversity within buffer zones to construct a graph structure. It then employs GNN for node classification to identify optimal battery swapping station locations. Experimental results show that, compared to traditional methods, the proposed approach improves site selection accuracy by 15% and enhances optimization efficiency by 20%. This method can provide efficient and precise layout solutions in complex urban environments. Additionally, sensitivity analysis and robustness testing confirm the model’s stability and reliability under noisy data and dynamic traffic conditions.
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Yi et al. (2025) studied this question.
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