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Distribution centre charging

What Distribution Centre Charging Is

Distribution centre charging is EV charging infrastructure deployed at a logistics distribution centre (DC) to support electric fleets operating from that site. It typically serves delivery vans, trucks, yard vehicles, and company cars, using a mix of depot-style charging, operational scheduling, and site power management to keep vehicles ready for routes and shifts.

A distribution centre differs from a standard depot because charging must fit into a facility with heavy power users (warehouse automation, refrigeration, HVAC) and strict operational windows (loading docks, shift changeovers).

Why Distribution Centre Charging Matters

Distribution centres are high-utilisation fleet hubs, so electrification success depends on reliable charging operations:
– Ensures vehicles are charged for early departures and multi-shift operations
– Prevents charging peaks from exceeding site limits or triggering demand charges
– Reduces downtime risk for mission-critical logistics routes
– Supports sustainability targets and low-emission zone compliance
– Enables staged scale-up as more vehicles are electrified over time

Typical Charging Setups at Distribution Centres

Most DC sites use a combination of AC and DC charging, depending on vehicle type and dwell time:

AC charging for overnight and long dwell

– Common for delivery vans parked for hours
– Lower CAPEX per bay and easier scalability
– Works well with load management across many chargers

DC charging for fast turnaround

– Used for vehicles with tight schedules or higher daily mileage
– Useful for top-ups between shifts or late arrivals
– Needs careful peak control because power draw is high

Yard and on-site vehicle charging

– Charging for shunters, forklifts (if EV), service vehicles, and pool cars
– Often integrated into a broader site energy strategy

Key Design Considerations

Distribution centre charging is mostly about constraints and operations:

Fleet duty cycle: arrivals/departures, dwell time, route energy needs
Simultaneity: how many vehicles plug in at the same time
Site power cap: grid connection and transformer limits
Interaction with building loads: warehouse peaks may coincide with charging peaks
Load management policy: priority by departure time, SOC targets, vehicle class
Bay layout: circulation for large vehicles, dock traffic, safety separation
Resilience: fallback charging strategy if part of the system fails
Future expansion: spare capacity in ducting, DBs, and switchgear

Software and Operations Layer

A successful distribution centre deployment usually includes:
Charge Point Management System (CPMS) for monitoring and control
Depot power management to enforce site limits
– Fleet scheduling integration (shift plan, route dispatch) if available
– Reporting for internal cost allocation (per vehicle, per route, per cost centre)
– Maintenance workflows and spare parts readiness to protect uptime

Common Pitfalls

– Designing only for today’s fleet size (no scaling plan)
– No coordination with warehouse peak loads → frequent site cap breaches
– Underestimating civil works and traffic flow constraints
– Too few chargers in the right places → operational bottlenecks
– Weak connectivity (large metal buildings can be signal-hostile)
– No clear ownership between facility, fleet, installer, and software provider

Depot charging
Depot energy optimization
Depot power management
Load management
Charge Point Management System (CPMS)
Demand charges
Battery energy storage system (BESS)
Dynamic load management