Standardized high-voltage power conversion nodes engineered for international deployment. Built in our 10,000 m² automated facility to guarantee continuous 96%+ operating efficiency.
How upstream Silicon Carbide (SiC) integration, comprehensive component localization, and automated high-power testing infrastructure deliver 40% capital expenditure reductions without sacrificing component longevity.
Unlike system assemblers that source third-party sub-assemblies from fragmented vendors, our Kunshan factory controls the primary conversion chain: from surface-mount technology (SMT) fabrication of DSP control boards to winding high-frequency planar transformers and CNC sheet-metal enclosure bending.
China's domestic semiconductors have accelerated the transition from legacy IGBT switches to Silicon Carbide (SiC) MOSFETs. Our in-house constant-power charging modules achieve a peak operating efficiency of 96.5%, operating under high thermal stress with minimal switching losses.
Every fast charger cabinet undergoes continuous full-load circulating burn-in tests inside a 50°C climatic chamber. Our factory testing environment features automated regenerative load beds that simulate high-voltage transients, harmonic interference, and continuous 1000V DC saturation curves.
High-power DC charging has moved beyond simple AC-DC rectification. The emergence of 800V passenger vehicles, heavy-duty electric trucks, and grid capacity constraints demands intelligent power topologies.
Legacy DC chargers lock power modules into fixed dispenser circuits. Modern architectures employ solid-state relay matrices that dynamically route 20kW or 30kW module slices to whichever connector requests high current. A dual-gun 240kW charger can intelligently split into 180kW + 60kW or 120kW + 120kW on the fly.
Standard uncooled cables face a continuous thermal limit of 200A to 250A. To supply 480kW–600kW ultra-fast charging to vehicles such as the Porsche Taycan, Hyundai Ioniq 5, or commercial fleet tractors, our systems incorporate synthetic dielectric coolant loops that maintain lightweight cable handling while pushing 600A continuously.
Heavy freight demands power levels unattainable via CCS2. As a forward-looking OEM factory, our split-type power cabinets are designed to support the upcoming CharIN MCS standard (up to 1,250V and 3,000A), providing the core engineering for cross-country logistics corridors and port electrification.
Choosing the right hardware configuration dictates initial capital expenditure, land utilization efficiency, and ongoing operational maintenance overheads across a 10-year operational lifecycle.
| Architecture Type | Rated Power Span | Ideal Footprint & Dwell Time | Key Engineering Highlights | Thermal & Acoustic Profile |
|---|---|---|---|---|
| Compact DC Wallbox | 20kW – 40kW | Auto dealerships, multi-family garages (1–3 hours) | Low-noise centrifugal fans, 3-phase 380V/480V direct, wall or pedestal mounting. | < 58 dB(A), natural convection / ducted air |
| Integrated All-in-One Cabinet | 60kW – 240kW | Retail plazas, highway service plazas (20–45 mins) | Dual-gun independent outputs, optional 32-inch high-brightness DOOH ad display. | < 65 dB(A), IP54 separated cooling duct |
| Heavy Commercial All-in-One | 300kW – 400kW | Public charging hubs, fleet depot hubs (15–30 mins) | Wide voltage output (150V–1000V DC), integrated active power factor correction (PFC > 0.99). | < 68 dB(A), smart variable-speed blowers |
| Split-Type Centralized Matrix | 360kW – 720kW | Transit bus depots, logistics hubs (10–30 mins) | Centralized power conversion unit feeding 4 to 12 satellite dispensing pedestals. | Centralized exhaust zone; quiet user pedestals (< 50 dB) |
| Solar BESS Integrated Unit | 100kWh – 200kWh (ESS) | Grid-constrained areas, highway remote rests | Integrated CATL/EVE LFP cells, liquid battery cooling, multi-directional bi-directional inverter. | Aerosol fire suppression, HVAC temperature control |
From sub-zero Scandinavian motorways to coastal desert humidity in the Middle East, our EV charging hardware is custom-tailored to regional physical and electrical demands.
High-power 360kW-720kW split-type configurations maximize vehicle throughput. Featuring ultra-reliable CCS2/NACS connectors, high-voltage 1000V operational envelopes, and direct credit-card POS integration (Nayax/Ingenico) to meet European AFIR regulations.
Our 32-inch advertising charging piles bridge fast charging with digital out-of-home revenue. Incorporating 2,500-nit daylight-readable anti-glare screens, remote 4G content distribution, and dual-gun 120kW/180kW fast-charging capability.
Heavy-duty overnight or opportunity-charging systems for municipal buses, delivery vans, and logistics providers. Controlled via OCPP 1.6J/2.0.1 smart charging profiles to prevent localized transformer overloads and take advantage of off-peak utility tariffs.
Our 100kWh and 200kWh battery-buffered charging systems allow ultra-fast DC charging on rural connections with as little as 30kW available grid capacity. Integrated lithium iron phosphate (LFP) cells bridge peak current draws automatically.
What international Charge Point Operators (CPOs), electrical distributors, and utility procurement directors evaluate prior to factory commissioning and volume production signing.
A reputable OEM supplier must maintain documented compliance: CE (EN 61851-1, EN 61851-23), UL 2202 for the United States, CB scheme approvals across IEC 61851 standards, and German Eichrecht MID billing certification readiness.
Hardware must seamlessly handshake with third-party backend management systems via OCPP 1.6-JSON and OCPP 2.0.1. Our controllers are pre-validated against leading CPO platforms including Driivz, AMPECO, Greenflux, and ChargeLab.
Every sub-assembly carries unique laser-etched QR identifiers. We specify industrial-grade contactors, Phoenix Contact charging cables, and conformal-coated internal PCBs designed for a Mean Time Between Failures (MTBF) exceeding 100,000 operational hours.
Direct technical clarity regarding thermal envelopes, communication standards, and custom manufacturing execution.
Our fast-charging cabinets utilize an isolated dual-chamber thermal design. The sensitive electronics (DSP controllers, communication modules, metering units) reside in an IP65 sealed compartment, isolated from the airflow path. The power conversion modules operate within an independent wind tunnel utilizing variable-speed fans that dynamically modulate based on internal temperature sensors, ensuring dependable continuous operation in ambient conditions ranging from -35°C to +55°C without power derating.
Yes. Our modular DC power conversion units feature an ultra-wide constant-power output voltage spectrum from 150V DC up to 1000V DC. When a 400V vehicle (such as a Nissan Leaf or standard Tesla Model 3) connects, the station delivers high current within the 400V envelope. When an 800V native architecture (such as a Porsche Taycan, Lotus Eletre, or commercial e-truck) engages, the system effortlessly scales voltage up to 1000V DC, maximizing charging speed across all EV classes.
We offer comprehensive white-labeling and hardware tailoring. This includes custom RAL exterior powder-coating, silkscreened client logos, tailored human-machine interfaces (HMI) with customized company UI themes, credit card terminal integrations (Nayax, Ingenico, Payter), custom cable lengths up to 7.5 meters with specialized spring retractors, and tailored firmware stacks featuring private APNs and customized OCPP parameter keys.
In locations where local distribution transformers cannot support instantaneous 120kW to 240kW loads, upgrading grid infrastructure can take 12 to 24 months and require significant capital. Our battery-buffered charging piles incorporate 100kWh or 200kWh Tier-1 lithium iron phosphate (LFP) energy storage. The system trickles power from the grid during idle periods or absorbs on-site solar generation, discharging stored energy instantly when a vehicle initiates a rapid DC charge session.
All our DC chargers support ISO 15118-2 and ISO 15118-20 (including TLS 1.3 encryption) for seamless Plug & Charge (PnC) without requiring RFID cards or smartphone apps. Handshakes are handled through PLC (Power Line Communication) via HomePlug Green PHY modems, backed by DIN 70121 legacy protocols to maintain backward compatibility with older electric vehicle models.
Explore additional factory-certified AC destination chargers, dual-gun commercial wallboxes, and high-capacity storage-integrated charging stations.