Translate charging pile terminology into a DC charger, cabinet, dispenser and station specification for international procurement.
Compare V2L, V2H, V2B and V2G, then qualify the vehicle, charger, site, grid, controls and commercial program before buying bidirectional EV equipment.
Which EVs use CHAdeMO? Check vehicles by market, model year and inlet, then decide whether a charging site should retain, share, add or retire CHAdeMO.
A nominal 22kW AC charger is commonly about 32A per phase. Learn why 6mm² is only a candidate and how ampacity, voltage drop, routing, protection and terminal limits determine the final cable.
Specify dual gun charging with cabinet, per-port and concurrent power limits, allocation logic, OCPP boundaries and FAT/SAT test cases.
Compare HPC and conventional DC charging by vehicle acceptance, voltage, current, cooling, sustained power, concurrency, site capacity and acceptance evidence.
Estimate electric-car charging time from usable energy, vehicle limits, average accepted power, SOC, temperature, power sharing and site dwell—not charger kW alone.
Plan public EV charging stations around demand, ownership, AC/DC mix, payment, accessibility, reliability and opening-day evidence—not charger kW alone.
Choose mobile EV charging equipment by architecture, delivered energy, vehicle limits, input power, duty cycle, transport and replenishment—not kW alone.
A commercial DC fast-charging budget is more than charger hardware. Use this six-boundary framework to scope a comparable, destination-specific quotation.
Plan a DC fast charger station from duty cycle and grid capacity through layout, OCPP, FAT, SAT and handover. Includes practical checklists.
Translate Level 3 charger terminology into a reviewable DC fast charger specification covering vehicles, power, current, concurrency, site input, protocols, and documents.
