Engineered for mission-critical uptime, high throughput, and seamless multi-standard global compliance across GB/T, CCS1, CCS2, and NACS ecosystems.
As the international automotive industry shifts toward 800V-1000V battery architectures, Level 3 DC Fast Charging stations represent the foundation of modern electrified mobility. Suzhou HizonSun Tech Co., Ltd. serves as a vertically integrated Original Design Manufacturer (ODM) and Original Equipment Manufacturer (OEM), closing the technological gap between high-voltage power electronics and turnkey field deployment.
Unlike assemblers reliant on third-party subcontracts, HizonSun develops and manufactures key structural sub-assemblies in-house. From precision metal stamping and anti-corrosive powder coating to power factor correction (PFC) circuitry and proprietary digital signal processor (DSP) controllers, we enforce total hardware traceability.
Our engineering matrix covers all established international charging interfaces: CCS Type 1 (North America), CCS Type 2 (Europe, Oceania, South America), GB/T 20234 (China, Central Asia), and NACS / SAE J3400 compatibility. Firmware stacks conform fully to ISO 15118-2/-20 Plug & Charge and DIN 70121 signaling protocols.
Equipped with native Open Charge Point Protocol (OCPP) 1.6-JSON and OCPP 2.0.1 engines, HizonSun DC fast stations integrate directly with global Charge Point Operators (CPOs), smart microgrid energy routers, roaming clearinghouses (Hubject, GIREVE), and enterprise billing platforms.
Level 3 Direct Current (DC) Fast Charging shifts the electrical conversion process from the vehicle's onboard charger (OBC) directly to off-board industrial rectifiers. Discover how our hardware delivers peak electrical performance.
Utilizing wide-bandgap Silicon Carbide (SiC) power semiconductor switches, our 20kW, 30kW, and 40kW hot-swappable rectification modules achieve conversion efficiencies greater than 96.5%. SiC lowers thermal loss by 35% compared to legacy Silicon IGBT solutions, vastly increasing MTBF (Mean Time Between Failures).
Traditional multi-gun stations suffer from static power division, stranding idle kilowattage. Our split-type and integrated charging piles utilize dynamic relay matrices that recalculate and route DC current across dual or multiple dispensing guns in real-time, matching individual Battery Management System (BMS) charging curves.
Our ultra-wide output voltage range spans from 150V DC up to 1000V DC. This ensures full backward compatibility with legacy 400V battery architectures (e.g., standard sedans and urban delivery vans) while unleashing maximum sustained charging speeds on next-generation 800V and 900V luxury EVs, heavy electric trucks, and transit buses.
| Architecture Feature | Legacy Level 2 AC (3.5–22kW) | Standard Level 3 DC (60–180kW) | High-Power Split Level 3 (240–720kW) | Storage-Buffered Level 3 (100–200kWh) |
|---|---|---|---|---|
| Primary Application | Long-dwell (Home, Hotel, Workplace) | Commercial Fleets, Retail, Service Hubs | Highway Corridors, Bus Depots, Logistics | Grid-Constrained, Peak-Shaving, Off-Grid |
| Output Voltage Window | 230V / 400V AC (Grid Dependent) | 150V – 1000V DC Ultra-Wide | 200V – 1000V DC Continuous | 200V – 750V / 1000V DC High Current |
| Power Conversion | Internal Vehicle OBC | Integrated SiC Rectifier Modules | Centralized Matrix Power Cabinet | Integrated PCS + LFP Battery Pack |
| Typical 20%–80% Dwell | 4 to 8 Hours | 20 to 45 Minutes | 10 to 18 Minutes | 15 to 30 Minutes (Buffered) |
| Protocol Compliance | IEC 61851-1, SAE J1772 | ISO 15118, DIN 70121, CHAdeMO | ISO 15118-2/-20, MCS Ready | OCPP 2.0.1, Microgrid EMS Routing |
Real-world Level 3 infrastructure requires custom adaptation to local grid stability, vehicle duty cycles, environmental extremes, and monetization strategies. We design site-optimized hardware families tailored to four core deployment sectors.
Designed for national transit corridors where turnover velocity is paramount. 360kW–720kW split systems featuring liquid-cooled charging cables deliver up to 500A continuous current, enabling 200–300 km of driving range replenishment within an 8-minute rest stop.
Integrated 60kW–240kW stations equipped with industrial-grade 32-inch high-brightness sunlight-readable display screens (2500+ nits). Operators capture dual revenue streams: direct kilowatt-hour billing alongside programmatic advertising broadcast to captive retail audiences.
Engineered for urban delivery vans, municipal bus transit systems, and taxi fleets. Features split centralized power architectures supporting 8 to 12 dispensing guns, automated overnight scheduled charging, and ISO 15118 automated Plug & Charge vehicle handshake.
For remote, rural, or grid-constrained utility zones where substation upgrades are cost-prohibitive. Our 100kWh/200kWh LFP battery-integrated stations act as an energy buffer, charging at low grid draw and discharging at high C-rates when fast charging is demanded.
Suzhou HizonSun Tech Co., Ltd. operates a full-lifecycle manufacturing pipeline in Kunshan, China. From raw structural sheet metal bending to robotic SMT circuit assembly and extended full-load burn-in testing, our process ensures uncompromising operational durability.
We tailor external housing geometry, anti-graffiti paint finishes, custom screen graphical user interfaces (GUI), branded cable holsters, and customized POS payment terminal integrations (Nayax, Ingenico, Payter) to fulfill brand identity requirements across diverse international markets.
Every Level 3 charging pile is subjected to rigorous environmental testing inside our dedicated chambers. Enclosures achieve IP54 and IP55 ingress protection with IK10 impact ratings, operational temperature tolerances from -35°C to +55°C, and C5-M marine-grade anti-corrosion finishes.
Our units power active networks worldwide. Recent milestones include delivering 180kW DC fast chargers supporting Thailand’s national infrastructure goal, deploying 20 units of 160kW stations across northwest China (Gansu), and exporting a fleet of 40 CCS2 DC units to municipal charging operators in Brazil.
The transition toward medium- and heavy-duty electric commercial vehicles requires an evolution in charging power levels and grid stabilization capabilities. Our ongoing R&D pipeline aligns directly with emerging international directives.
Engineered to deliver up to 3.75 megawatts (1250V DC at up to 3000A), our next-generation MCS systems address long-haul Class 8 heavy-duty trucks, electric passenger ferries, and regional aircraft. Featuring liquid-cooled junction boxes and active chilled-loop thermal dissipation.
Our upcoming power module series incorporates bidirectional active four-quadrant inverters. Vehicles do not merely consume grid electricity; aggregated EV fleets act as distributed virtual power plants (VPP), discharging energy back into the distribution network to shave peak grid loads.
Edge microcontrollers monitor real-time contactor resistance, internal temperature deltas, capacitor degradation, and insulation resistance. Automated alerts notify central management systems before component failure, ensuring network uptime greater than 99.5%.
Detailed engineering and procurement insights curated by our international applications team.
Level 1 (120V AC, 1-2kW) and Level 2 (208V-240V/400V AC, 3.5kW-22kW) supply alternating current to the vehicle's onboard charger (OBC), which rectifies AC into DC to charge the battery pack. In contrast, Level 3 Charging Stations—universally known as Direct Current Fast Chargers (DCFC)—convert high-voltage three-phase AC grid electricity into direct current inside the charging station housing itself. By bypassing the physical size, thermal, and weight constraints of an onboard vehicle rectifier, Level 3 stations can inject between 20kW and over 720kW of DC power directly into the battery pack, dramatically compressing charging times from several hours to 10–30 minutes.
For power levels up to 180kW–240kW operating under 250A continuous current, we utilize forced-air cooling designs featuring segregated airflow ducts, variable-speed fan arrays, and high-efficiency heat sinks that isolate sensitive control boards from dusty outside air (IP54/IP55 rated). When charging currents exceed 300A to 500A—such as in 360kW to 720kW systems—we incorporate closed-loop liquid-cooled cable assemblies and chilled-coolant circulation systems within the dispenser. This active liquid cooling dissipates heat directly from the cable conductors and terminal pins, maintaining safe ergonomic touch temperatures for drivers.
HizonSun designs chargers to meet all globally recognized standards within our unified architecture. We supply Combined Charging System 2 (CCS2) for Europe, South America, and Australasia; Combined Charging System 1 (CCS1) and North American Charging Standard (NACS / SAE J3400) for North America; GB/T 20234.3 for mainland China and affiliated trading partners; and CHAdeMO on designated commercial models. Our software controllers utilize universal communication codecs capable of auto-detecting the attached EV protocol.
Yes. Every station comes standard with an open, non-proprietary OCPP 1.6-JSON client, with optional support for OCPP 2.0.1. This ensures immediate interoperability with major global Charge Point Operator (CPO) management platforms such as Driivz, AMPECO, Greenflux, ChargeLab, and custom proprietary cloud backends. Communication interfaces include dual high-speed Ethernet ports, cellular 4G/LTE modems, and local Wi-Fi with TLS 1.3 cryptographic security.
An Integrated DC Charging Pile houses both the power electronics modules and the user-facing dispensers in a single cabinet. This is compact and ideal for sites with 1 to 4 parking bays. In contrast, a Split-Type architecture (such as our 360kW–720kW systems) separates the heavy, noisy power conversion electronics into a centralized power bank cabinet placed in a utility area, connecting via DC bus lines to slender, user-friendly dispenser pedestals up to 50 meters away. This layout saves prime parking space, simplifies routine module servicing, and dynamically routes power across 8 to 12 charging bays.
An energy storage integrated system (featuring 100kWh or 200kWh Lithium Iron Phosphate / LFP battery banks) is ideal when local grid capacity is restricted (e.g., only 30kW–50kW available at the transformer), utility connection upgrades are prohibitively costly, or long transformer lead times would delay project commissioning. The battery charges continuously at low power or utilizes co-located solar PV during daylight hours, then discharges at full 120kW–200kW power when an electric vehicle connects, mitigating peak utility demand penalties.
Explore our specialized high-capacity DC fast chargers, battery-buffered units, and multi-standard AC pedestals configured for global turnkey deployments.