Skip to content
VULTAE

DC fast chargers · 160 kW

160 kW DC Charger for Highway and Fleet Sites

Why 160 kW is a balance point: two 400 V cars each get ~80 kW and one 800 V car gets 160 kW on 200 A cables. Supply, charging times and sites.

Prepared by
VULTAE Engineering Team
Published
Reading time
4 min
Sources
2 references

At a glance

Rated output
160 kW DC
Connectors
CCS2 + CCS2 or CCS2 + CHAdeMO
Current per CCS connector
Up to 200 A
Two 400 V cars
≈ 80 kW each
One 800 V car
Up to 160 kW
Input
400 V 3-phase, 248 A per phase
Apparent power
≈ 172 kVA
VULTAE model
VT-DF160

Key takeaways

  1. 1160 kW is a natural balance point for a dual-connector charger with 200 A air-cooled cables: two 400 V-class cars can each charge at their full cable-limited ~80 kW at the same time.
  2. 2For a single 800 V-class car, 200 A at about 800 V is 160 kW — so one high-voltage car can use the whole cabinet without liquid-cooled cables.
  3. 3The VT-DF160 draws up to 248 A per phase at 400 V, about 172 kVA — usually a dedicated transformer or a large commercial connection.
  4. 4Good fits: motorway and trunk-road sites with steady traffic, fleet depots where two vehicles often charge together, and city hubs serving taxis and ride-hailing cars.
Electric vans charging at DC fast chargers in a fleet depot
Electric vans charging at DC fast chargers in a fleet depot
Contents
  1. 01Why 160 kW fits 200 A cables so well
  2. 02Charging times
  3. 03Supply and site
  4. 04Where 160 kW fits
  5. 05VT-DF160 specifications

Short answer: 160 kW is a balance point for a dual-connector DC charger with standard 200 A air-cooled cables. Two 400 V-class cars can each charge at their full cable-limited speed of about 80 kW at the same time, and one 800 V-class car can use the whole 160 kW (200 A × about 800 V) without liquid-cooled cables. The VT-DF160 needs about 172 kVA (248 A per phase at 400 V) and suits trunk-road sites, busy fleet depots and city hubs.

Why 160 kW fits 200 A cables so well

Power per connector on a 160 kW dual-connector charger with 200 A cables One 400 V-class car: about 80 kW, cable-limited. One 800 V-class car: up to 160 kW. Two 400 V-class cars: about 80 kW each, the full cabinet used. Two 800 V-class cars: about 80 kW each, cabinet-limited. One 400 V carOne 800 V carTwo 400 V carsTwo 800 V cars cabinet 160 kW ≈ 80 kW (cable limit) up to 160 kW ≈ 80 kW≈ 80 kW ≈ 80 kW≈ 80 kW 200 A air-cooled CCS cables; peak values before the cars’ own charging curves taper.
At 160 kW, two 400 V-class cars each get their full ~80 kW and a single 800 V-class car can use the whole cabinet.
Situation Connector A Connector B Cabinet used
One 400 V-class car ≈ 80 kW (cable limit) — Half
One 800 V-class car Up to 160 kW — All
Two 400 V-class cars ≈ 80 kW ≈ 80 kW All
One 400 V + one 800 V car ≈ 80 kW ≈ 80 kW All

Charging times

Vehicle and situation Average power, 10 → 80 % 60 kWh battery 80 kWh battery
400 V-class car, alone or sharing ≈ 65–70 kW ≈ 35 min ≈ 50 min
800 V-class car, alone ≈ 110–130 kW ≈ 20 min ≈ 25–30 min
800 V-class car, sharing ≈ 70 kW ≈ 35 min ≈ 50 min

Estimates; the car’s charging curve, battery temperature and state of charge decide the real time — see why a 150 kW charger rarely delivers 150 kW.

Supply and site

Item VT-DF160
Supply 230 / 400 V AC, 3-phase, 50/60 Hz
Input current Up to 248 A per phase
Apparent power ≈ 172 kVA (two units ≈ 344 kVA)
Foundation Concrete base, cable entry from below
Footprint (W × D × H) 850 × 840 × 1,850 mm (plus 115 mm cable hanger)

At this size, most sites need a dedicated transformer or a large commercial connection. Check the utility’s demand charges too: two 160 kW chargers can set a high monthly peak even with modest use — load management can cap it.

Where 160 kW fits

Site Why
Trunk roads and secondary motorways Two cars at full 400 V speed; 800 V cars served well
Fleet depots with quick turnarounds Taxis, ride-hailing, delivery vans charging between shifts, often two at once
City fast-charging hubs High turnover with a mix of 400 V and 800 V cars
Fuel station forecourts Short stops; two bays per cabinet

For the busiest motorway hubs serving mainly 800 V cars, see 240 kW. For sites where most visitors stay 30–60 minutes, 120 kW may be enough.

VT-DF dual-connector DC fast charger with touchscreen and two cable holders
The VT-DF cabinet is built from 60 to 300 kW in IEC versions; the VT-DF160 shares 160 kW between two connectors.

VT-DF160 specifications

VT-DF160
Max. output power 160 kW
Connectors CCS2 + CCS2, or CCS2 + CHAdeMO
Output voltage 150–1,000 V DC
Max. current CCS2 up to 200 A; CHAdeMO 150 A
Efficiency ≥ 95.2 % at full load
Ingress / impact IP54 · IK10
Operating temperature −20 °C to +55 °C
Interface 7″ touchscreen, RFID, QR code; OCPP 1.6J / 2.0.1
Options 21″ advertising screen, POS payment, 22 kW AC output, 4G, C4 anti-corrosion finish

In North America, the VT-DF family comes in 150 and 180 kW versions for 480 V supplies. See the VT-DF product page.

Questions buyers ask

How fast does a 160 kW charger charge?
For a 400 V-class car on a 200 A cable, about 80 kW at most — roughly 30–35 minutes from 10 % to 80 % on a 60 kWh battery. An 800 V-class car can take up to 160 kW, and some reach 10–80 % in around 20 minutes, depending on their charging curve.
Why 160 kW instead of 120 or 180 kW?
With 200 A cables, a 400 V car tops out around 80 kW. At 160 kW, two such cars charge at full speed simultaneously, and a single 800 V car can use the full 160 kW. 120 kW leaves two cars at about 60 kW each; 180 kW and above only add speed for 800 V cars or with higher-current cables.
What supply does a 160 kW DC charger need?
The VT-DF160 draws up to 248 A per phase at 400 V, about 172 kVA. That usually means a dedicated transformer or a large commercial supply; load management can cap the peak if capacity is limited.
Is a 160 kW charger good for a fleet depot?
Yes, where two vehicles often charge at the same time and turnaround matters — for example taxis, ride-hailing and delivery vans between shifts. For overnight depot charging, lower-power DC or AC is usually more economical.

References

  1. [1]IEC 61851-23:2023 — DC electric vehicle supply equipment. International Electrotechnical Commission.
  2. [2]Regulation (EU) 2023/1804 on alternative fuels infrastructure (AFIR). EUR-Lex.

Equipment

Chargers referred to in this guide

Tell us what you’re building

Send your market, charger type, power and quantity — our engineers reply with matching models, specifications and pricing.

Request a quote