DC Fast ChargersDistributed
Carus Energy CEDC3200AN147 DC Fast Charger Manual
Setup, everyday use, maintenance and troubleshooting for the 320 kW distributed (split-system) DC fast charger, with verified specifications.
- Max output320 kW
- ConnectorsCCS
- Outputs2
- Efficiency97%
About the Carus Energy CEDC3200AN147
This guide covers the Carus Energy CEDC3200AN147, a 320 kW distributed (split-system) DC fast charger listed as ENERGY STAR certified. It offers a maximum available output of 320 kW (up to 500 A), with 2 charging outputs using CCS connectors.
As a distributed (split) system, the power conversion equipment sits in a separate cabinet that feeds one or more dispensers at the parking spaces, which keeps the dispensers compact and lets one cabinet serve several stalls. It is rated for a 480 V three-phase supply.
Its average loading-adjusted conversion efficiency is 97%. That efficiency is higher than 77% of the 27 Distributed models in our database. With no vehicle connected it draws 55.9 W.
It is network capable over Ethernet, Wi-Fi, or cellular. Equipment includes a high-resolution display.
Specifications
| Brand | Carus Energy |
|---|---|
| Model number | CEDC3200AN147### |
| Configuration | Distributed |
| Maximum available output | 320 kW |
| Maximum output current | 500 A |
| Charging outputs | 2 |
| Connector types | CCS |
| Supply type | AC input |
| Rated input voltage | 480 V |
| Input phase | Three Phase |
| Average loading-adjusted efficiency | 97.0% |
| Power factor at full load | 0.99 |
| Standby power, no vehicle connected | 55.9 W |
| Idle mode power | 170 W |
| Network capable | Yes |
| Network connection | Ethernet, Wi-Fi, cellular |
| Demand-response (connected) capable | No |
| Credit card reader | No |
| RFID reader | No |
| High-resolution display | Yes |
| ISO 15118 (PLC) communication | No |
| Revenue-grade meter | No |
Safety information
- DC fast chargers operate at hazardous voltages — a 480 V three-phase supply and a DC output of several hundred volts. Only qualified electrical workers trained by the manufacturer should open the enclosure, and only after lockout/tagout and verification of zero energy, following NFPA 70E or the equivalent workplace electrical-safety rules.
- Installation must comply with the National Electrical Code (NEC Article 625 and related articles) or the Canadian Electrical Code, the manufacturer's installation manual and local requirements. Permits, inspections and utility approval are required.
- Know where the emergency stop and upstream disconnects are, keep them unobstructed and clearly labeled, and train site staff to use them.
- Take an output out of service immediately if its cable jacket is cut, the connector is cracked or pins are damaged, or the holster is broken. Do not attempt field repairs to cables or connectors.
- Keep cables off the ground and coiled on their holsters or cable-management systems so they are not driven over or become a tripping hazard.
- Drivers should use only connector adapters approved by their vehicle manufacturer, and never force a connector into a port.
Installation and site planning
A DC fast charger is a site project rather than a simple appliance installation. Plan for utility coordination, electrical design by a licensed engineer or electrical contractor, civil work and commissioning by a manufacturer-certified technician. At 320 kW output on a 480 V three-phase supply, input current at full load is on the order of 397 A (a rough estimate from output power and efficiency) — use the nameplate input rating in the installation manual for conductor and overcurrent sizing, which the NEC requires to be at least 125% of the continuous load.
- Engage the utility early
Request a service evaluation for the added load (320 kW for this unit). Many sites need a new service or transformer, and lead times can be long. Ask about commercial EV rate options and demand charges, which often dominate operating cost.
- Design the site
Lay out stalls so the cables reach charge ports on either side of typical vehicles, include accessible stalls and routes as required by accessibility rules, and add bollards or wheel stops, lighting, signage and space for maintenance access around the cabinet.
- Prepare foundations and conduit
Build the concrete pad and conduit runs to the manufacturer's drawings, including anchor-bolt patterns and minimum clearances for cooling airflow. For this distributed system, respect the maximum cable distance between the power cabinet and each dispenser stated in the manual.
- Set and wire the equipment
Set the cabinet(s), terminate the supply conductors and grounding to the specified torque, and install any separate communication cabling. Only qualified electricians should perform this work.
- Commission
A manufacturer-certified technician performs start-up checks, verifies insulation and protective functions, updates firmware and runs test sessions with a vehicle or load bank.
- Activate network and payment
Connect the charger to its network (Ethernet, Wi-Fi, or cellular), then configure pricing, access control.
- Inspect and open
Pass the electrical inspection, then publish the site to charging-network maps and apps so drivers can find it.
Using your DC fast charger
Driver charging session
- Select the correct connector (CCS) — and insert it fully into the vehicle's port.
- Authorize the session by starting the session in the network app.
- The charger and vehicle check the connection and insulation before energizing; charging then ramps up automatically.
- Stop the session from the screen, the app or the vehicle, wait for the connector to unlock, and return it to its holster.
What determines charging speed
- The vehicle requests the power; the charger supplies up to 320 kW, but most cars accept less than that, especially at high states of charge.
- Charging is fastest at low battery levels and tapers significantly above roughly 80% state of charge, so stopping at 80% frees the stall sooner.
- Very cold or hot batteries charge more slowly until the vehicle conditions them; preconditioning on the way to the charger helps.
- With 2 outputs, the 320 kW maximum is the unit's total available power. When more than one vehicle charges at once it may be divided between them; the manual describes the power-sharing scheme.
- High ambient temperatures or blocked cooling vents can cause the charger to reduce output to protect its components.
Remote monitoring
Use the network platform to watch charger status, session data and fault alerts. Set up alert notifications so faults are seen and dispatched quickly — uptime is the most important performance measure for a public fast charger.
Care and maintenance
| When | What to do |
|---|---|
| Daily or weekly | Walk the site: check connectors, holsters and cables for damage, clear debris and confirm screens and status lights are working. |
| Every month | Clean connector faces and holsters with a dry or lightly damp cloth (never a pressure washer), clean the display, and test a charging session on each output. |
| Every 3–6 months | Inspect and clean or replace air filters and check that cooling intakes and exhausts are clear, as the manual specifies. Check enclosure door seals and cable-management hardware. |
| Every year | Qualified technicians perform preventive maintenance per the manufacturer's schedule — typically power-connection torque checks, thermal imaging, cooling-system service, protective-function tests and firmware updates. |
| After any vehicle impact | Take the unit out of service and have it inspected, even if damage looks cosmetic. |
Keep a maintenance log and track uptime by output. Many manufacturers and network operators offer service agreements that include remote diagnostics and guaranteed response times.
Troubleshooting
Many fast-charging problems originate on the vehicle side or in communications. Check the basics below, then escalate to the service provider with the fault code and time of the event.
| Problem | Possible cause | What to try |
|---|---|---|
| Session will not start | Authorization failed; charger offline from its network; connector not fully seated. | Retry authorization or use another method; check network status; reseat the connector and wait for the handshake to complete. |
| Charging slower than expected | Vehicle's own limit or high state of charge; cold battery; power shared with another output; thermal derating. | Compare with the vehicle's charging curve; check whether another vehicle is charging; inspect cooling vents and filters. |
| Session stops unexpectedly | Insulation or ground-fault check failed; communication error between vehicle and charger; vehicle requested stop. | Restart the session once. If the same fault repeats, record the fault code and take the output out of service for inspection. |
| Payment or card reader not working | Terminal offline; reader dirty or damaged. | Check the terminal's network link; clean the reader; offer an app or RFID alternative while it is repaired. |
| Charger shows offline | Cellular, Wi-Fi or Ethernet connection lost; backend outage. | Check the modem or router and signal strength; contact the network operator. Some chargers continue local operation while offline. |
| Display dark or unreadable | Display or control power fault; very high ambient light. | Check status through the network platform; contact service if the display has failed. |
| Connector hot or damaged | Wear, contamination or mechanical damage. | Take the output out of service immediately and have the cable assembly replaced by a qualified technician. |
| Fault code displayed | Brand-specific diagnostic code. | Fault codes are not standardized; consult the code table in your manufacturer's manual or service portal. |
Energy use and running costs
With no vehicle connected the Carus Energy CEDC3200AN147 draws 55.9 W. If it sat in that state around the clock, it would use about 490 kWh a year — roughly $83.25 at $0.17 per kWh. Commercial electricity prices vary widely, so substitute your own rate. That standby draw is lower than 65% of the 24 Distributed models in our database.
At an average loading-adjusted efficiency of 97%, the charger draws about 103.1 kWh from the grid for every 100 kWh it delivers to vehicles. At a site delivering 300 kWh a day (an illustrative figure — roughly 8 to 10 typical sessions), conversion losses come to about 3,387 kWh a year, or $576 at $0.17/kWh.
For most commercial sites, utility demand charges — billed on the highest power drawn in a billing period — can outweigh energy charges. Power-management settings, staggered sessions and on-site storage can reduce peak demand.
Frequently asked questions
How powerful is the Carus Energy CEDC3200AN147?
Its maximum available output is 320 kW, with up to 500 A of output current. The actual charging rate depends on what each vehicle can accept and its battery's state of charge.
What connectors does the Carus Energy CEDC3200AN147 have?
The certification lists CCS connectors across its 2 outputs.
Can the Carus Energy CEDC3200AN147 charge two vehicles at once?
It has 2 outputs. The 320 kW figure is the unit's total available power, which may be shared when several vehicles charge simultaneously; check the manual for how power is allocated.
What electrical service does the Carus Energy CEDC3200AN147 need?
It is rated for a 480 V three-phase supply. A rough estimate of full-load input current is 397 A; the nameplate rating and the installation manual govern circuit sizing, which must be at least 125% of the continuous load. Utility coordination is usually required.
How efficient is the Carus Energy CEDC3200AN147?
Its average loading-adjusted efficiency is 97%, meaning about 3.0% of the input energy is lost as heat in conversion.
Does the Carus Energy CEDC3200AN147 accept credit cards and connect to a network?
It is network capable (Ethernet, Wi-Fi, or cellular). A credit card reader is not listed in the certification data.
How much power does the Carus Energy CEDC3200AN147 use on standby?
It draws 55.9 W with no vehicle connected — about $83.25 a year at $0.17/kWh if left in standby continuously.
Sources and disclaimer
Specifications on this page come from the ENERGY STAR certified dc fast chargers dataset published by the U.S. Environmental Protection Agency (record certified June 4, 2025), retrieved October 7, 2026.
The setup, operating, maintenance and troubleshooting guidance is written by ManualHarbor's editors for this specific product type and configuration. It is an independent guide — not a reproduction of the manufacturer's manual — and ManualHarbor is not affiliated with Carus Energy. Always follow the safety instructions, installation requirements and warranty terms supplied with your unit, and contact Carus Energy or an authorized service provider for warranty repairs and replacement parts.
Running-cost figures use assumed U.S. average utility prices and are estimates for comparison only. See our editorial methodology for details.