Electric Vehicle Supply Equipment

China Manufacturer of Highway 240kW DC EV Charger

I’m a China-based manufacturer, and I offer the Highway 240kW DC EV Charger tailored for highway corridors and fleet services. This high-power DC charger delivers up to 240 kW per port, enabling rapid top-ups and high device turnover. I designed it for reliability in harsh environments with rugged enclosure, IP-rated, wide temperature range, and modular power modules that can be replaced on-site. It supports CCS and CHAdeMO adapters, multiple connector options, and hot-swappable modules to minimize downtime. Networked via OCPP with Ethernet/4G, it integrates payment, remote diagnostics, and fleet management. Installation and branding are customizable to your site needs; I provide full after-sales support across China and international markets. If you’re a buyer seeking scalable capacity, lower total cost of ownership, and a trusted Manufacturer partner, the Highway 240kW DC EV Charger is built for your charging network.

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Highway 240kW DC EV Charger Application Service Backed by Expertise

For global fleets and highway operators seeking reliable ultra-fast charging, our end-to-end application service for 240kW DC EV chargers delivers engineered solutions from site assessment and civil design to commissioning, interoperability testing and long-term maintenance. Backed by deep expertise in power electronics, grid integration and safety standards, we optimize charger placement, grid connections and energy management to maximize uptime and minimize total cost of ownership. We offer multi-protocol compatibility, remote monitoring, OTA updates, spare-parts logistics and scalable rollouts with documented compliance to international certifications and rigorous factory testing. Flexible procurement options, predictable lead times, local partner coordination and dedicated technical support ensure smooth deployment across regions and reliable lifecycle performance.

{ Highway 240kW DC EV Charger Application Service Backed by Expertise}

Model Configuration Max DC Power Voltage Range (DC) Max DC Current (approx) Connector Types Simultaneous Charging Typical Use Cases
240-Single Single-output cabinet, integrated power stage 240 kW 200–1000 V DC Up to ~600 A (depends on voltage) CCS1 / CCS2, CHAdeMO (adapter), DC output only 1 vehicle at full rate Highway fast-charge stops, fleet rapid top-ups, truck-portable installations
240-Dual Two independent outlets, shared power stage 240 kW (total) 200–900 V DC Each outlet up to ~300 A (dynamic power split) CCS2, CHAdeMO (with adapter) 2 vehicles (power managed, e.g., 120+120 kW or 240+0 kW) High-throughput highway sites, service plazas, fleet depots with staggered loads
240-Modular Modular racks (scalable), distributed power modules N× modular 240 kW (scales by adding modules) 200–1000 V DC (per module) Per module up to ~600 A; aggregate limited by site supply CCS2, CHAdeMO, configurable outlets Multiple vehicles, dynamic load balancing across modules Large charging hubs, highway plazas, commercial depots requiring future capacity growth
Site Power Requirement (typical) Installation Lead Time Service & Support (SLA) Certifications & Protocols Peak Efficiency Cooling Method
480 V AC 3-phase supply typical; transformer and switchgear sized for continuous 240 kW plus 20% margin; neutral/fault protection and harmonics mitigation recommended Site assessment to commissioning: 4–12 weeks (site prep, permits, electrical upgrades affect timeline) 24/7 remote monitoring; preventative maintenance every 6 months; on-site response typically 24–72 hours depending on SLA tier; firmware & security updates included IEC 61851-23, IEC 62196-3, ISO 15118 (Plug & Charge capable), OCPP 1.6 / 2.0.2 for backend integration; EMC and safety compliance to regional standards 95%–96% peak (AC->DC conversion, depending on operating point and cooling) Liquid-cooled power stage and cables (preferred for sustained high power); air-cooled cabinet options for lower duty cycles
Site prep: reinforced concrete pad, vehicle circulation clearance, cable routing trenching and bollard protection; optional battery buffer to reduce grid peak demand Permitting and utility agreement typical add 2–8 weeks depending on jurisdiction Remote diagnostics reduce on-site visits; field service kits and replacement modules designed for rapid swap to minimize downtime Supports secure communications and certificate-based authentication (ISO 15118); back-end compatibility via OCPP Typical station-level efficiency including thermal losses: 92%–95% under mixed load Hybrid cooling approach available: liquid for cables/power modules + forced-air for cabinet internals
Operational notes:
  • Power-splitting logic ensures safe dynamic distribution between multiple outlets to protect site supply and maximize throughput.
  • Recommended regular firmware updates and cybersecurity patching to maintain interoperability and safety.
  • For optimal throughput on highway sites, consider energy storage co-located to smooth grid demand and reduce utility upgrade costs.

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Highway 240kW DC EV Charger Supplier in 2025

Projected Highway 240kW DC Charger Deployment & Utilization (2025 Monthly Trend)

This chart visualizes projected deployment and utilization trends for highway 240kW DC fast chargers across 2025. The left axis shows monthly cumulative installations (units) and the right axis displays average hourly utilization rates (%). Data assume an aggressive rollout from January to June as infrastructure projects accelerate, followed by a steady installation cadence for the remainder of the year. Utilization rises rapidly in the first half as early charging sites attract traffic and fleet adoption increases, peaking mid-year when new corridors reach critical mass. After the peak, utilization stabilizes but remains elevated due to improved route coverage and increased EV travel patterns. Interpreting these trajectories helps infrastructure planners, grid operators, and policy makers assess capacity needs and identify high-priority locations for additional investment. A strong early adoption phase implies immediate demand on distribution transformers and local substations; operators should prioritize grid reinforcement and smart charging controls in high-growth segments. The mid-year utilization peak indicates where demand management, reservation systems, or additional charger clustering could improve customer experience and reduce queuing. The slower installation pace later in the year suggests a shift from build-out to optimization, focusing on reliability, maintenance, and interoperability. Key caveats include assumptions about vehicle adoption rates, energy pricing, and regional permitting speeds; real-world outcomes will vary by corridor and regulatory environment. Sensitivity analysis around EV traffic growth and dwell time can refine these projections. Overall, this visualization provides a scenario-based snapshot to guide strategic decisions on siting, capacity upgrades, and operational policies for highway 240kW DC charging infrastructure in 2025. Planners should combine this time-series with spatial demand models, electricity tariff forecasts, and seasonal travel patterns to create robust investment plans. Collaboration among utilities, charging operators, and transportation agencies accelerates effective deployment while minimizing stranded assets and ensuring equitable access along major highways and during peak periods.

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