Compare AC wallboxes, DC fast chargers, high-power charging, smart operation, battery storage, hybrid inverter, portable power and solar-system routes. Final model, configuration and document scope are confirmed for each project.
Reviewing a supplier before choosing a model? Check our AC wallbox manufacturer and quotation scope, or discuss EV charger OEM and private-label requirements. Model-specific documents are provided after inquiry and configuration review.
Short answer: Most commercial buyers should start by separating AC charging from DC fast charging. AC wallboxes are usually used for homes, hotels, apartments, workplaces and destination parking. DC fast chargers are used when vehicles need faster turnover, such as public parking, fleet depots, highways, bus depots and charging stations. If the project needs payment, RFID, QR, POS or operator reporting, confirm OCPP/CSMS requirements before choosing a model.
Use 7kW, 11kW or 22kW AC chargers when vehicles park for hours and installation cost matters.
Use 40kW to 180kW DC chargers for commercial sites, fleet depots and higher-turnover parking.
Use 200kW, 300kW or higher DC/HPC options when route schedule, grid capacity and charger utilization justify it.
Confirm OCPP, RFID, QR, POS, app, billing reports and CSMS integration before final model selection.
The full directory remains available below. Use these family routes first to avoid comparing unrelated products only by power or price.
7kW, 11kW and 22kW Level 2 charging for long-dwell parking, workplace, hotel, apartment and destination sites.
Shortlisting an AC wallbox supplier? Review our AC wallbox manufacturing and supply scope before requesting a model-specific quotation.
Commercial Level 3/DCFC platforms for fleet, public parking, highway, bus and higher-turnover charging.
Split or integrated high-power routes for larger batteries, shorter dwell time, trucks and charging hubs.
OCPP, RFID, payment, load management, cluster charging and operator-software product routes.
Wall, rack, cabinet and container BESS for backup, solar, peak management and grid-support planning.
Single- and three-phase solar-storage inverter routes with PV, battery, backup and monitoring review.
Portable LiFePO4 power stations reviewed by energy, continuous and surge output, ports, charging and transport.
Solar panels, controller and integrated solar-storage routes; confirm the complete system boundary before RFQ.
| Buyer task | Start with | Inputs that decide fit | Next route |
|---|---|---|---|
| Charge vehicles parked for several hours | AC wallbox or pedestal | Phase, available load, parking time, connector, user access, OCPP and charger count. | AC charger collection |
| Increase vehicle turnover | DC fast charger | Vehicle charge curve, dwell time, daily energy, grid capacity, connector mix, CSMS and payment. | DC fast charger collection |
| Serve highway or heavy-duty traffic | 150kW+ or split high-power platform | Battery voltage, peak traffic, cable cooling, simultaneous sessions, transformer and expansion plan. | 150kW platform |
| Operate multiple paid or managed chargers | OCPP-ready hardware plus CSMS | Authorization, tariff, payment, reporting, network, load management, alarms and service workflow. | OCPP/CSMS route |
| Support solar, backup or a constrained grid | BESS and hybrid-inverter review | Load profile, kW/kWh, PV generation, grid limit, battery voltage, PCS/inverter and control boundary. | Solar-storage route |
Review single-phase supply, connector, cable, access and installation.
For workplace and commercial parking with three-phase capacity.
Freeze platform, branding, label, manual, packaging and software scope.
Review foundation, bay layout, cable reach, access and payment boundary.
Product-family images are representative; connector, display, cable and communication options depend on the selected model.
Review starter sites, smaller fleets, vehicle dwell time and grid limit.
Compare power sharing, simultaneous use, CSMS and payment scope.
Review traffic, session target, connector, vehicle acceptance and expansion.
For high utilization, larger batteries, trucks and scalable dispenser layouts.
Product-family images are representative; power, connector, display, payment and cooling configuration depend on the approved model.
Start with battery voltage, vehicle acceptance, dwell time, daily energy, concurrency, cable handling and grid architecture.
Define protocol version, backend, provisioning, transactions, meter values, remote commands, alarms and firmware workflow.
Write the driver journey across RFID, app, QR or POS, tariff, receipt, settlement, offline behavior and local service provider.
Share transformer limit, other site loads, bay priorities, charger sharing, meter or CT and the response to network loss.
Review kW, kWh, cycle schedule, grid limit, charging load, PCS/EMS and safety boundary for peak shaving, buffering or backup.
Match PV input, MPPT, battery voltage, backup loads, grid/export rule and monitoring for solar-storage projects.
Coordinate the load profile, PV generation, grid capacity and charging schedule before selecting equipment.
Long-dwell AC charging, shared parking, load management and optional solar-storage planning.
AC/DC mix, user access, payment, utilization, operating model and site-power boundary.
Route energy, return window, vehicle priority, charger count, power sharing and managed load.
Traffic, session time, vehicle power acceptance, high-power architecture, uptime and expansion.
Datasheets, drawings, manuals, test scope and compliance materials vary by model and configuration. Some files are provided directly to qualified project buyers rather than published as generic downloads.
Send the duty, power, connector, software, market and quantity so the relevant model files can be selected.
Request shortlistRequest available outline, interface, cable-entry, foundation or mounting information for the selected product.
Request drawingsDescribe OCPP, CSMS, authorization, payment, monitoring or energy-control workflow for test planning.
Request test reviewState the exact model, destination and required standard or tender item for applicability confirmation.
Review document processUse one controlled configuration across quotation, product code, option list, label, drawings, software settings, accessories, packaging and available documents. For equipment acceptance, agree which identity, charging, protection, communication and packing checks will be recorded before dispatch.
Vehicle or load type, parking or backup time, daily energy, site environment, number of users or bays and growth plan.
Phase, voltage, grid or transformer capacity, existing load, target power, connector, PV, battery or inverter information.
Authorization, payment, OCPP/CSMS, monitoring, load management, EMS, reporting, remote service and local responsibilities.
Datasheet, drawing, manual, test, certificate, packing, label or tender files needed for the shortlisted model and destination.
Choose AC chargers for long parking time and lower installation cost. Choose DC fast chargers when vehicle turnover and charging speed are the main requirements.
Send charger type, power range, connector, OCPP or payment needs, country, installation scenario, quantity, branding needs and target delivery time.
SUNFULL can support AC/DC charger hardware and OCPP-ready configurations. The final backend, billing and payment scope should be confirmed during RFQ.
Use the AC charger category for wallbox projects, the DC fast charger category for public or fleet charging, and the commercial EV charger page for project-level RFQs.
Send the application, site power, target output or capacity, connector or system interface, software and monitoring needs, destination, quantity and required files. SUNFULL will route the inquiry to the appropriate AC, DC, high-power, storage, inverter or solar product family.