A Practical Guide to Electrifying a Logistics Fleet in the Netherlands

Dutch logistics operators are transitioning to electric delivery vans faster than most other European markets, driven by a combination of municipal zero-emission zone deadlines, fuel cost pressure, and the improving economics of EV leasing. Amsterdam's ZEZ (zero emission zone) for freight vehicles is already active in the city center, and several other municipalities including Utrecht, Rotterdam, and Eindhoven are phasing in similar restrictions through 2025 and 2026. If your routes include any of these zones, the question of when to electrify has already been answered for you.

What follows is a guide to how the transition actually unfolds, based on the stages we have observed in our early-access pilots with Dutch operators. Each stage has its own challenges, and the mistakes made in one stage reliably create complications in the next.

Stage 1: The Pilot (1 to 5 Vehicles)

Most fleet operators begin with a small pilot, usually 2 to 5 vehicles on carefully selected routes. The goal is operational learning before committing to full fleet conversion. What gets learned in this stage depends almost entirely on which routes you assign the pilot vehicles to.

The instinct is to choose the easiest routes, which are typically short, predictable, and always returning to the same depot. That makes sense for initial validation. The mistake is drawing too strong a conclusion from a smooth pilot. If your 3-vehicle pilot runs 60 km per day on Amsterdam Centrum routes and every van returns to a Type 2 home charger every night, you have learned very little about how the same vehicles will behave on a 120 km day in February when battery range drops 15 to 20 percent.

Use the pilot phase to measure actual range consumption per km for your specific vehicle type and route profile. Note how temperature affects range. Test what happens when a driver returns at 8 percent SoC: how does the charging time affect the next morning's departure? These are the data points that will determine your charging infrastructure sizing decisions, so collect them deliberately rather than just confirming that the vans work.

Charging infrastructure during the pilot phase is typically straightforward. A 32 A three-phase outlet (CEE socket or dedicated Type 2 charger) per vehicle is all you need. Most pilots run on temporary infrastructure rather than permanent installation, and that is fine.

Stage 2: Scaling to 15 to 25 Vehicles

This is the stage where most of the difficult decisions get made, and where the most expensive mistakes happen. At 15 to 25 vehicles, the aggregate charging demand starts to matter. You need a permanent charging installation, which means deciding on charger count and power level before you have full operational data from the larger fleet.

The grid connection question typically surfaces here for the first time. An existing industrial connection of 160 to 250 kVA, which is common for a depot with warehouse operations and basic utilities, has limited headroom for EV charging once you account for existing loads. Before ordering charger hardware, have an electrician run a load analysis of your site's existing consumption patterns. You need to know what your grid connection currently carries during the 17:00 to 21:00 window, when vehicles are returning and plugging in.

Charger selection at this stage should be guided primarily by OCPP capability. You will want to run load management as the fleet grows, and that requires chargers that implement OCPP 1.6 fully and reliably. Not all chargers described as "OCPP-compatible" by their manufacturers actually implement the Smart Charging Profiles that enable current setpoint control. Ask for documentation of which OCPP feature profiles are supported, and if possible, test one unit before committing to a multi-unit order.

For 15 to 25 vans with overnight dwell times of 10 to 12 hours, a mix of 11 kW chargers with a ratio of roughly 0.6 to 0.7 chargers per vehicle is usually sufficient when combined with load management. Twenty vans can typically be serviced by 12 to 14 chargers when the load management software ensures that the highest-priority vehicles charge first and overnight hours are used efficiently.

Stage 3: The Electricity Contract Renegotiation

As charging load grows, the electricity contract you signed for your warehouse operations may no longer be appropriate. Standard SME contracts with a simple day/night rate structure leave significant savings on the table compared to time-of-use contracts designed for large flexible loads.

Dutch commercial electricity contracts above a certain consumption threshold can be structured with hourly or quarter-hourly indexed pricing, where you pay a price linked to the APX (Amsterdam Power Exchange) day-ahead market. During off-peak hours, particularly between 23:00 and 06:00 on weekdays and throughout weekends, APX prices are typically 25 to 45 percent lower than peak prices. For a 25-van fleet consuming 2,500 to 3,500 kWh per night, shifting even 60 percent of that consumption to the cheapest 4-hour window represents a meaningful cost reduction over a year.

The catch is that taking advantage of indexed pricing requires a load management system that can actually schedule charging around the price curve. A flat nightly rate does not reward you for shifting load. An indexed contract does, but only if you can reliably move consumption when prices signal. Before switching contract structure, confirm that your charging software can ingest an hourly price schedule and optimize around it. This is not a universal feature, and the contracts that offer the best price-responsive rates often require metering and flexibility guarantees that a basic charger timer cannot provide.

Stage 4: 30 to 60 Vehicles and the Infrastructure Pressure Point

At 30 to 60 vehicles, charging infrastructure moves from a logistics convenience to a critical operational dependency. A night where the load management system fails and vehicles arrive the next morning at 60 percent SoC instead of 95 percent is no longer an inconvenience. It disrupts the day's dispatch planning.

Several things typically need to happen at this stage. First, the grid connection question becomes unavoidable. For most Dutch depots, a 30 to 60 vehicle fleet requires either a grid connection upgrade or a very well-optimized load management strategy that keeps aggregate demand within existing limits. Run the throughput calculation honestly: total kWh needed per night, divided by available charging window, equals required sustained kW. If that number exceeds your grid connection headroom (contracted kVA minus existing site loads), you need to either reduce that number through off-peak scheduling or increase the grid connection.

Second, monitoring and alerting become critical. With 15 vans, a fleet manager can visually check which vehicles are plugged in and roughly estimate whether everything will be ready. With 50 vans, that is impossible. You need a system that actively monitors each session, tracks SoC progress against departure targets, and alerts you if any vehicle falls behind. Discovering at 04:30 that 6 vans need another 2 hours of charging when your first shift leaves at 05:30 is a solvable problem if you know about it at 02:00. It is unsolvable if you discover it at 05:00.

Third, you need to address the driver behavior question. At smaller fleet sizes, it is easy for every driver to find a charger when they return. At 50 vans with 40 chargers, some vehicles will not immediately find a free bay. Fleet managers need a clear policy for vehicle movements between charging bays, or they need enough bays that the issue does not arise. The former is operationally messy; the latter is expensive. The middle ground is a charger-count ratio that minimizes the need for manual vehicle movement while staying within budget.

Stage 5: Full Fleet and the Energy Management Layer

A fully electric depot with 50 or more vehicles looks different from a traditional fuel depot in one important respect: the electricity bill is now a major operational cost line, not a minor overhead. At 50 vans consuming an average of 40 kWh per charge cycle at an average electricity cost of 0.16 euros per kWh (blended, weighted toward off-peak), your annual charging cost is roughly 1,200 euros per vehicle or 60,000 euros per year for the fleet. That number is sensitive to how well you shift consumption to off-peak hours.

The difference between a poorly scheduled fleet and a well-scheduled one at this scale is not marginal. Operators who charge during peak hours in a standard commercial contract pay 0.22 to 0.28 euros per kWh instead of 0.12 to 0.16 euros during off-peak periods. Over 50 vehicles consuming 40 kWh per night, the annual difference is roughly 15,000 to 20,000 euros in electricity cost alone, before accounting for demand charges triggered by simultaneous peak-hour charging.

At full fleet scale, the charging management platform is also where you start thinking about battery storage integration and grid flexibility services. On-site battery storage can shift grid import from expensive peak hours to cheap overnight hours even when vehicle dwell times do not perfectly align with tariff windows. Grid flexibility participation allows you to earn revenue by agreeing to curtail charging load during short grid stress events. Neither of these is relevant at small fleet sizes, but both start making financial sense at 30 to 50 vehicles and above.

The Mistakes That Slow Down Every Stage

Looking across the operators we have worked with in our early-access program, a handful of mistakes appear consistently across different stages. Choosing charger hardware without verifying OCPP implementation quality is probably the most common. The second is underestimating grid connection lead times: requesting a capacity increase from a Dutch DSO should happen 12 to 18 months before you need it, not when you have already ordered the vehicles. The third is treating the electricity contract as fixed: contracts for large commercial loads are negotiable, and a charging optimization platform is only as valuable as the tariff structure it is optimizing against.

We are not suggesting that every operator follows the same path or that the stages above map perfectly onto every fleet type. Regional delivery operators, temperature-controlled logistics, and heavy urban last-mile operations all have different route profiles and dwell time patterns that shift the calculations. What holds across all of them is this: the energy management layer is not something you add after the vehicles and chargers are in place. It is infrastructure that shapes how much value your charging installation delivers, starting from the day the first van plugs in.