Table 1.
References | Focus | Methodology | Key findings | Research implications |
---|---|---|---|---|
37 | Placement of the CS, power losses, and voltage swings | TLBO algorithm | Optimizing CS placements |
It explore integrating efficient , environmentally friendly charging features |
43 | EV charging station locations, grid reliability | Fuzzy decision-making with the hybrid CSO TLBO algorithm | Pareto ideal solutions for power loss, cost reduction | |
45 | Distribution network stability and placement of solar-powered charging stations | Probabilistic modeling using feed-forward neural networks, modified CSO approach, and EV load prediction | lower power losses and better voltage profiles on a 33-bus system | Using hybrid algorithms to locate charging facilities in cities and in-depth models to analyze the behavior of EV drivers |
47 | Grid stability, cost savings, and efficient implementation of charging infrastructure | Stochastic modeling and PV generation integration with PSO | Significant cost reductions, a reduction in transformer congestion | adaptable solution that delays the need for new transformers in both residential and commercial settings |
48 | EV charging stations with solar panels strategically placed | Hybrid BFOA-PSO optimization algorithm | Effectiveness in maintaining voltage stability and reducing power losses | Make it easier for EVs to be integrated into modern distribution networks |