Spatial modelling study demonstrates that machine learning-guided charging station placement expands 10-minute network coverage up to 77%, highlighting an efficient framework for infrastructure...
Planning future electric vehicle charging infrastructure requires assessment of spatial suitability, demand, network gaps, and expected accessibility benefits. This study developed a national-scale framework for Bosnia and Herzegovina integrating machine-learning (ML) suitability modelling, post-modelling prioritisation, reproducible candidate selection, and scenario-based population accessibility assessment. A dataset of 188 EVCS locations and spatially balanced pseudo-absences was analysed using 28 spatial predictors. Five classifiers were evaluated through spatial cross-validation, with XGBoost providing the most balanced performance. After feature reduction, the final model retained five predictors: road density, travel time to hotels, travel time to parking, distance to major roads, and travel time to tourist attractions. The priority index combined modelled suitability with population demand, LU/LC opportunity, and the travel-time gap to existing EVCSs. Candidate locations were derived using a deterministic settlement- and road-constrained procedure followed by network-based spacing, and scenarios with 10, 20, 40, 50, and 60 new EVCSs were evaluated. At the 10 min threshold, population coverage increased from 57.9% for the existing network to 65.4% with 10 new EVCSs, 68.7% with 20, 73.8% with 40, 75.6% with 50, and 77.0% with 60. The framework provides a reproducible basis for national EVCS investment screening while distinguishing occurrence-based suitability, strategic deployment priority, and expected accessibility gains.
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Avdić et al. (2026) studied this question.
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