A Comprehensive Study of Electric Vehicle Charging Systems: Charging Methods, Infrastructure Availability, and Solar PV–Wind–Grid Hybrid Energy Integration.
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Abstract
The mass proliferation of electric vehicles (EVs) is a new force in sustainable transport as a means to decarbonize transport fuel consumption, but at the same time to also bring renewables electricity to this application. However, charging stations availability, charging performance and accessibility and energy source are essential points affecting the effectiveness of the EV adoption. A systematic learning about EV charging system has been discussed in this mini project, EVs major charging methods, charging level, EVs basic charging system architecture and requirements of EV charging systems and integration with solar PV, Wind and grid energy have been discussed. The "combination" of hybrid, as a concept, has been well thought through to the level of associations it can have with RETIO, and ongoing lines of charging as supported by the grid. This simple energy-management strategy produces the charging demand and supply (renewable generation) by the following decision variables: charging demand, renewable generation, battery state of charge and grid constraints. Charging power, energy of batteries and the renewable energy contribution and power balance equations are shown and selected. Illustrative profiles are developed to represent the potential complementary generation from solar and wind energy sources which can work to keep residents off the grid. The problem with hybrid charging is that, in addition to being an electrical design issue, it is an infrastructure, a control, a protection and energy-management issue, and it is the latter of which the study emphasizes. Battery storage, smart charging, vehicle to grid operation, forecasting and optimization are all additions within the proposed framework that are adaptive...
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