SAGMOTO i9 Electric Truck Depot Charging Infrastructure Guide for European Fleets 2026

Why Depot Charging Is the Foundation of European i9 Operations

The SAGMOTO i9 is one of the most cost-competitive heavy-duty electric trucks available to European fleet operators in 2026, but the truck itself is only half of the deployment equation. The other half is the depot charging infrastructure, and European fleet operators consistently underestimate the time, capital and grid coordination required to install a functional charging facility. Shaanxi Fenghan Trading supports every European i9 delivery with a depot-readiness consultation, and this guide summarises the most important considerations for buyers in Germany, the Netherlands, Belgium, France, Italy, Spain, Poland, the Nordics and the United Kingdom.

Unlike diesel refuelling, which is a five-minute transaction at any service station, electric truck charging requires fixed high-power equipment at the operator's depot, sized for the duty cycle, supported by a grid connection capable of handling the simultaneous load, and integrated with the operator's energy management and tariff strategy. For a fleet running 10 to 50 i9 tractors on regional distribution routes, the depot investment typically represents 25 to 40 percent of the total truck acquisition and operating cost over the first three years. Getting the depot design right from day one is therefore the single biggest determinant of fleet electrification success.

The i9 Charging System: CCS2 Connector and Battery Specification

The SAGMOTO i9 supports the Combined Charging System 2 (CCS2) standard, which is mandatory for all new electric vehicles in the European Union under the Alternative Fuels Infrastructure Regulation. CCS2 combines a Type 2 AC connector for slow and overnight charging with a high-power DC connector for fast charging, with theoretical power levels up to 350 kW per vehicle. The i9's battery pack is a 423 kWh lithium iron phosphate (LFP) configuration arranged in a 12-module pack mounted between the chassis rails, with a usable capacity of 405 kWh. The onboard charger accepts up to 230 kW DC at the CCS2 inlet, allowing a 10 to 80 percent fast charge in approximately 95 minutes, and a 0 to 100 percent overnight AC charge in around 9 hours at 44 kW.

For depot operations, the relevant charging parameters are continuous DC power, peak grid load, and connector availability. The i9's peak DC charging power is 230 kW, but sustained charging power depends on battery state of charge, ambient temperature and charger capability. For most European fleets, the practical depot planning number is 180 kW average per i9 vehicle, which translates to approximately 90 minutes of plug-in time for a full charge cycle from a 10 percent state of charge baseline. This is fast enough for back-to-back shift operations but requires careful depot scheduling.

Charger Selection: 350 kW, 150 kW and AC Options

Three charger configurations dominate European depot design in 2026. The first is the 350 kW DC fast charger, which delivers the highest power density per vehicle and is the right choice for fleets running 24/7 shift operations with limited plug-in windows. A single 350 kW charger can serve two i9 trucks simultaneously through sequential or parallel charging modes, with each truck receiving up to 175 kW average. The 350 kW charger requires a dedicated 800 A three-phase grid connection, which is the most capital-intensive option but also delivers the highest truck throughput per square metre of depot space.

The second is the 150 kW DC charger, which is the most popular choice for fleets running single-shift daytime operations with overnight plug-in. A 150 kW charger requires a 350 A three-phase grid connection and can charge an i9 from 10 to 80 percent in approximately 140 minutes, which fits comfortably inside a typical 4 to 6 hour evening plug-in window when combined with opportunistic top-up during driver breaks. The 150 kW charger costs approximately 60 percent of the 350 kW option per station and is the standard recommendation for fleets below 25 trucks.

The third is the 44 kW AC charger, which is the right choice for fleets with very long plug-in windows (8-12 hours overnight) and low-cost existing grid connections. AC chargers are 80 percent cheaper per station than DC chargers and require only a 63 A three-phase connection, but they cannot opportunistically top up during the day. Most European fleets operate a mixed strategy: a primary 350 kW DC charger for the central depot plus 22 kW AC chargers at satellite yards where overnight dwell time is long.

Grid Connection, Permits and DSO Coordination

The grid connection is the most common bottleneck in European depot electrification. Distribution system operators (DSOs) such as E.ON in Germany, Enedis in France, National Grid in the UK and Alliander in the Netherlands require 6 to 18 months to upgrade the local medium-voltage network for high-power charging, and the application must be submitted before any civil works begin. For a 10-bay depot with five 150 kW DC chargers, the typical grid application is for 2 to 3 MVA of additional capacity, which may require a new substation transformer if the existing site connection is below 1 MVA.

Shaanxi Fenghan Trading partners with European charging infrastructure specialists including ABB E-mobility, Kempower, Allego and Total Energies to coordinate the grid application, civil works, charger installation and commissioning. A typical 10-bay 150 kW depot takes 9 to 14 months from initial site survey to first vehicle charging, with the grid upgrade representing approximately 40-50 percent of the total project timeline. Fleet operators should plan the grid application at the same time as the truck order, not after, because the depot will not be ready until the grid is energised.

Permits vary by country. In Germany, the Mittelspannungsanschlussverordnung and the local Baugenehmigung process apply. In France, the Consuel electrical inspection and the local Enedis connection agreement are required. In the Netherlands, the Liander or Stedin grid application is the key step, followed by the Omgevingsvergunning for any above-ground charger cabinets. In Italy, the GSE incentive registration and the local ARERA grid application run in parallel. Shaanxi Fenghan Trading's European partner network handles the permit process on behalf of fleet operators.

Depot Layout, Civil Works and Charger Positioning

The physical layout of a depot for 10 to 50 i9 trucks requires careful planning to minimise cable runs, optimise vehicle manoeuvring, and ensure safety compliance. Each 350 kW DC charger requires a footprint of approximately 2.5 m by 1.5 m for the cabinet and dispenser, plus a 7-metre charging bay that allows the i9's CCS2 inlet (located on the left side of the cab, behind the front axle) to reach the dispenser without excessive cable tension. Pull-through bays are strongly preferred over reverse-in bays because the i9 is too long for most urban depots to allow safe reverse manoeuvring in tight spaces.

Civil works include a reinforced concrete pad for each charger cabinet (typically 200 mm thickness, 25 MPa strength), underground HV cabling from the substation to each charger (typically 95 mm² to 240 mm² depending on run length), and an above-ground cable tray or buried conduit system for the dispenser cables. The total civil cost per charging bay ranges from EUR 25,000 to EUR 50,000 depending on soil conditions and existing site infrastructure. Operators should plan for at least 20 percent contingency on the civil budget, especially on brownfield sites with unknown underground utilities.

Energy Management, Off-Peak Strategy and Operating Cost

European electricity tariffs vary dramatically by country and time of use, and the energy management strategy has a bigger impact on per-kilometre operating cost than any other depot design choice. For example, the German industrial tariff in 2026 ranges from EUR 0.18 per kWh during off-peak hours (22:00 to 06:00) to EUR 0.34 per kWh during peak hours (08:00 to 20:00), while the French industrial tariff ranges from EUR 0.10 to EUR 0.22 per kWh across the same window. The cost difference between all-off-peak and all-peak charging is approximately EUR 0.12 to EUR 0.16 per kWh, which over 80,000 kWh annual consumption per truck equals EUR 9,600 to EUR 12,800 of additional cost per truck per year.

For most European fleets, the optimal strategy is to schedule 70-80 percent of charging during off-peak windows using the i9's onboard charging timer, with the remaining 20-30 percent as opportunistic DC top-ups during driver breaks and mid-shift returns. This approach produces an average electricity cost of EUR 0.14 to EUR 0.20 per kWh for the depot, which translates to approximately EUR 0.08 to EUR 0.11 per kilometre for the i9. This is competitive with diesel at EUR 0.30 to EUR 0.40 per kilometre at current European diesel prices, and produces an annual fuel saving of EUR 18,000 to EUR 25,000 per truck.

Workforce Training and Safety Certification

European regulations require depot staff working on or near high-voltage charging equipment to hold specific safety certifications. In Germany, the DGUV Information 203-077 and the VDE 0105-100 standards apply. In France, the NF C 18-550 electrical safety certification is mandatory for any work on EV charging infrastructure. In the Netherlands, the NEN 3140 low-voltage and NEN 3840 high-voltage standards cover depot operations. Shaanxi Fenghan Trading partners with certified European training providers to deliver 2-day depot operator courses that cover charger operation, fault diagnosis, emergency isolation and PPE requirements.

For depot operators, the most common day-to-day safety procedure is the lockout-tagout (LOTO) sequence before any maintenance work, which involves isolating the charger at the cabinet, isolating the upstream circuit breaker, and verifying zero voltage with a calibrated tester before commencing work. The i9 itself does not require high-voltage work during routine depot operations, but any intervention on the battery pack, motor inverter or charging inlet requires factory-trained technicians.

Conclusion

The SAGMOTO i9 is an excellent European distribution truck, but its success depends on a well-designed depot charging facility that matches the duty cycle, the grid capacity, and the energy tariff strategy. For most European fleet operators in 2026, the right starting point is a 10 to 20-bay depot built around 150 kW DC chargers, with a 2 to 3 MVA grid upgrade coordinated with the local DSO at least 12 months before truck delivery. Shaanxi Fenghan Trading supports every i9 European order with depot design, grid application guidance, charger selection and workforce training, ensuring that fleets go live on day one with a fully operational charging facility.