Explore our flagship hardware configurations deployed across commercial transport corridors, retail destinations, and municipal charging plazas.
A rigorous examination of supply chains, power electronic topologies, and total cost of ownership (TCO) across global charging infrastructure deployments.
The global electric vehicle charging ecosystem has completed its transition from an early-adopter pilot phase into a mission-critical utility class infrastructure. Driven by high-voltage 800V silicon carbide (SiC) traction battery architectures in commercial passenger cars and heavy-duty electric commercial vehicles (e-HGVs), charging station equipment requirements have fundamentally changed. Today, Charge Point Operators (CPOs), fleet logistics giants, and turnkey infrastructure distributors can no longer rely on unscalable, fragmented hardware solutions. They demand proven Original Design Manufacturer (ODM) and Original Equipment Manufacturer (OEM) partnerships that unify robust power electronics engineering, global standards compliance (CCS1, CCS2, GB/T, NACS, ChaoJi), and secure backend cloud telemetry under rigorous industrial manufacturing protocols.
Modern fast-charging hubs represent sophisticated micro-grid distribution nodes rather than passive grid draw points. With high-power DC fast charging (DCFC) demand surging up to 360kW, 480kW, and split-architecture configurations reaching 720kW, the core engineering challenges have shifted toward harmonic distortion reduction (THD < 5%), dynamic matrix power allocation, high-voltage liquid cooling, and seamless bidirectional protocol execution (ISO 15118-2/20 with Plug & Charge). Concurrently, urban grid constraints and steep demand charge penalties have made battery-buffered energy storage charging systems (BESS-EVSE) essential for capital efficiency, enabling operators to deploy megawatt-level services on legacy transformer feeds without cost-prohibitive grid upgrade timelines.
How advanced power switching, liquid cooling, and open telemetry drive 99.8% field uptime across enterprise deployments.
Our fourth-generation 30kW and 40kW DC conversion modules replace traditional silicon IGBT switches with SiC MOSFETs, cutting thermal dissipation losses by over 38% and maintaining flat 96.5% peak electrical efficiency curves across ultra-wide output ranges (150VDC to 1000VDC).
Integrated split-type systems decouple power generation from dispensing terminals. Granular 20kW/30kW power module pooling dynamically shifts energy between heavy commercial trucks requiring 360kW+ down to light passenger EVs pulling 40kW, eliminating stranded capacity during peak hours.
Full native support for OCPP 1.6-J and OCPP 2.0.1, paired with hardware-anchored Secure Boot (TPM 2.0) and TLS 1.3 encryption. Compliant with ISO 15118-2/20 specifications to facilitate automated vehicle authentication, Plug & Charge, and dynamic grid V2G handshakes.
| System Architecture | Nominal Power Class | Input Voltage & Frequency | Max Current & Connector Type | Ingress & Impact Rating | Optimal Deployment Scenarios |
|---|---|---|---|---|---|
| Smart AC Wallbox / Pedestal | 7.4kW / 11kW / 22kW / 44kW | 230V 1P / 400V 3P (50/60Hz) | 16A – 63A | Type 1, Type 2, GB/T | IP65 / IK10 Weatherproof | Multi-family residential, corporate fleet parking, hotel destination networks |
| Integrated DC Fast Charger (All-In-One) | 60kW / 120kW / 180kW / 240kW | 380V – 480V 3P + PE (50/60Hz) | 200A – 300A | CCS1, CCS2, GB/T, NACS | IP54 / IK10 Outdoor Enclosure | Commercial shopping centers, fuel forecourts, municipal highway service rest stops |
| Split-Type Megawatt Centralized Hub | 360kW / 480kW / 720kW Matrix | 400V / 480V 3P + PE (50/60Hz) | Up to 600A Liquid-Cooled | 8–12 Guns | IP55 Power Core / IP54 Terminals | Electric bus terminals, logistics fleet depots, heavy-duty mining and freight corridors |
| Energy Storage Buffered (BESS+EVSE) | 100kWh – 200kWh LFP + 120kW DC | Low-voltage grid feed or Solar DC Bus | Dual 250A DC Outputs | ISO 15118 | IP55 Modular Outdoor Cabinet | Grid-constrained highway intersections, island networks, solar microgrid charging nodes |
Engineered to resolve local utility interconnection limits, operational uptime requirements, and diverse commercial monetization models.
Electrifying mass transit and logistics fleets requires guaranteed turnaround schedules. By installing centralized 480kW–720kW split power cabinets with overhead pantograph or floor-mounted dispensers, depot operators charge up to 12 commercial vehicles overnight with automated off-peak power leveling and zero manual intervention.
Our dual-gun 60kW–240kW DC fast charging systems featuring weatherized 32-inch high-bright outdoor multimedia display screens convert routine 30-minute dwell times into dual revenue streams: kilowatt-hour tariffs and programmatically targeted retail advertising with built-in EMV/NFC/POS payment hardware.
Remote highway rest areas often suffer from weak electrical supply grids. Our integrated 100kWh/200kWh lithium iron phosphate (LiFePO4) energy storage charging piles draw trickle grid or rooftop photovoltaic solar power, discharging burst 120kW–180kW DC energy during transient peaks to completely bypass utility capacity upgrade fees.
Anticipating next-generation automotive power trains, charging interface evolutions, and artificial intelligence-driven load orchestration.
As heavy commercial transport shifts to class-8 battery trucks, the industry is transitioning beyond the current 400A/500A CCS limitation toward the Megawatt Charging System standard (MCS), delivering up to 3.75MW (1250V @ 3000A) using active glycol-water liquid-cooled cabling and robotic contactors.
Bidirectional power flow converts idle electric fleets into distributed energy storage resources. Conforming to IEEE 1547 and ISO 15118-20, our bidirectional DC conversion modules allow utilities and microgrid operators to draw stabilizing reserve power from parked vehicle batteries during peak demand spikes.
Our internal controller architecture analyzes microsecond switching voltage ripple, contactor thermal resistance, and insulation degradation. Through machine learning models deployed at the cloud edge, maintenance operators detect impending cable or component wear days before physical failures occur.
Authoritative insights prepared by our factory application engineering team for infrastructure project developers and procurement directors.
An Original Design Manufacturer (ODM) partnership enables enterprise clients to own the engineering evolution of their charging assets. Unlike white-labeling generic units, our ODM service offers complete customization of power module topology, enclosure industrial design, custom sheet metal alloys (such as marine-grade galvanized steel or aluminum), customized firmware stacks, proprietary cloud management integrations (OCPP 1.6-J/2.0.1 via custom JSON websockets), and localized regulatory compliance paths tailored to regional grid operators.
Our systems undergo comprehensive automated conformance testing on a fleet of global test benches replicating over 120 production EV models. Firmware protocol controllers support dynamic multi-standard handshake sequences covering IEC 61851-1, DIN 70121, ISO 15118, SAE J1772, CHAdeMO, and GB/T 27930. Cable assemblies are available in native CCS1, CCS2, GB/T, and NACS configurations, with integrated electronic interlocks and PT100/NTC thermistor arrays tracking terminal temperatures continuously.
In high-throughput environments like highway hubs or transit depots, an integrated DC cabinet ties the converter directly to the gun, creating stranded power capacity whenever a single car cannot accept the cabinet's maximum output. Split-type systems centralize up to 720kW of power conversion into an isolated utility yard, feeding multiple lightweight dispensers. A dynamic cross-matrix matrix switch matrix routes power in discrete 20kW/30kW increments precisely matching each vehicle's real-time battery acceptance limit, increasing overall site throughput by up to 35%.
Commercial utility tariffs often impose severe financial penalties based on instantaneous 15-minute peak power draws. A 100kWh or 200kWh energy storage integrated pile uses its internal lithium iron phosphate (LiFePO4) battery buffer to absorb fast-charging surges. During multi-vehicle charging events, the battery bank discharges alongside grid supply to provide 120kW–240kW output, while the grid connection remains throttled to an economical baseline (e.g., 30kW–50kW), slashing monthly electricity bills dramatically.
Every industrial unit incorporates multi-stage physical and electronic safeguards: input overvoltage/undervoltage protection, AC surge protection devices (Type 2 SPD), DC output short-circuit protection, residual current monitoring (Type B RCD), insulation fault detection via ground leakage monitoring, emergency stop loops, emergency pyrotechnic contactor disconnects, cabinet tilt sensors, smoke sensors, and active temperature monitoring on every DC busbar and liquid-cooling reservoir.
Explore heavy-duty dual-gun units, digital signage chargers, integrated solar-plus-storage platforms, and megawatt split systems.