E-truck rollout outpaces its charging grid — the gap is now years

Europe’s Electric Truck Rollout Is Outpacing Its Charging Grid—And the Gap Is Now Measured in Years, Not Megawatts

The single most important fact for European fleet operators and infrastructure investors in 2026 is this: electric heavy-truck sales grew 47% year-on-year in the first half of 2026, but the publicly available charging network for those trucks is being built at a pace that will miss the 2030 CO2 reduction targets by a wide margin. The bottleneck is no longer truck availability, battery cost, or range anxiety—it is the physical construction of high-power, truck-dedicated charging capacity along the TEN-T core network. Data from the IEA, SIA Partners, and industry trackers all converge on the same conclusion: without a step-change in grid connection lead times and depot-level charging investment, the 2030 fleet targets will be met with trucks that cannot be operated at full capacity.

The 47% Sales Jump Is Real, But It Starts From a Tiny Base

The headline figure from the TechTimes analysis of H1 2026 data is a 47% increase in European electric truck registrations compared to the same period in 2025. That is a genuine acceleration, driven by total cost of ownership parity in specific duty cycles, tightening CO2 standards, and the expansion of production capacity at Volvo, Daimler Truck, Traton, and newcomers. However, context matters: the absolute number of zero-emission heavy-duty trucks (over 16 tonnes) on European roads remains a small fraction of the ~6.5 million diesel trucks in operation. The 47% jump is a growth rate, not a market share revolution.

The IEA’s Global EV Outlook 2026, published in May 2026, frames this challenge precisely. The agency tracks both truck-dedicated chargers and public passenger-car chargers that can technically accommodate truck fast charging. For truck-exclusive chargers, the IEA uses the higher value reported by either eTrucker or EAFO databases. For chargers accessible to both light- and heavy-duty vehicles, it uses eTrucker data and applies the average of stations and points. This methodological transparency matters because the raw numbers look deceptively healthy if you count every 150 kW CCS stall as “truck-capable.” In reality, a 150 kW charger takes 2 to 5 hours to replenish a 300–750 kWh heavy-duty battery pack—not viable for long-haul operations.

The Battery Reality: 300–750 kWh Packs Change Everything

The TechTimes piece highlights a critical technical constraint that passenger-car charging models ignore: heavy trucks have battery packs of 300–750 kWh for long-haul duty, compared to 300–400 kWh for a city bus. Individual battery packs weigh around 500 kg (about 1,100 lbs), and a single truck can carry up to several such packs. This has two direct consequences.

First, charging power must be dramatically higher than passenger-car levels. A 350 kW charger—already rare in many European corridors—would take over an hour to add meaningful range to a 600 kWh pack. The Milence network, built specifically for HGVs, is deploying MCS (Megawatt Charging System) chargers precisely because they can deliver 1 MW or more, cutting charging time to under 30 minutes for a typical long-haul stop.

Second, the grid connection requirement is not linear. A single truck stop with four MCS chargers at 1 MW each needs a 4 MW grid connection, plus local storage and possibly on-site solar. This is a substation-level infrastructure project, not a retail charger installation. The SIA Partners study, published July 30, 2026, explicitly identifies grid connection lead times as the primary bottleneck in Western Europe. Their research shows that in several EU member states, the queue for a medium-voltage grid connection for a truck charging hub exceeds 24 months—longer than the typical planning phase for a new truck depot.

Milence and Radius: The Network Is Consolidating, But Coverage Is Still Thin

The July 9, 2026 announcement that business mobility provider Radius has added the Milence charging network to its list of partners is a positive but incremental step. Radius customers now get access to Milence’s European heavy-duty charging network, which features high-power charging stations including MCS chargers strategically located along major freight corridors. This roaming agreement is the kind of interoperability that fleets need to plan cross-border routes without fear of stranding.

However, the Milence network itself is still in its early deployment phase. The joint venture between Volvo Group, Traton Group, and Daimler Truck secured an additional €120 million in financing in May 2026 to accelerate its European rollout, according to the MarketResearchFuture report. That capital injection is necessary but not sufficient. Building a single MCS-equipped truck stop with 4–8 stalls, grid connection, and megawatt-scale transformers costs between €2 million and €5 million depending on location and grid proximity. The €120 million funds roughly 30–60 sites—a meaningful start, but a fraction of the 1,000+ locations needed for true TEN-T corridor coverage by 2030.

Comparative Infrastructure Reality: What Exists vs. What Is Needed

The table below synthesizes the available data from the IEA, SIA Partners, and Precedence Research to illustrate the gap between current infrastructure and 2030 requirements. Note that the IEA counts both truck-dedicated chargers and passenger-car chargers that can technically accommodate trucks, which inflates the apparent availability.

The Precedence Research report, published August 13, 2026, adds a crucial historical perspective: less than 40 electric heavy freight trucks were on the road by 2020. That means the entire European e-truck fleet has been built in just six years. The market is now scaling, but the infrastructure market is scaling from an even lower base. Precedence projects the overall electric vehicle charging infrastructure market to reach USD 492.59 billion by 2035, but that figure is dominated by light-duty passenger car charging. Heavy-duty truck charging is a niche within that market, and the report explicitly notes that heavy freight truck electrification is a longer-term project requiring high-capacity batteries and high-power charging.

The Grid Connection Bottleneck Is the Real Story

The SIA Partners study is the most direct and sobering analysis of the infrastructure challenge. Their key finding: the electrification of road freight depends as much on fleets as on a dense, high-power European charging network. The study covers Western Europe specifically and identifies several structural barriers:

• Grid connection queues: In Germany, France, and the Netherlands—the three largest freight markets—the average lead time for a new medium-voltage connection at a truck depot or public charging hub is 18 to 24 months. This is longer than the typical leasing contract for a logistics warehouse, creating a mismatch between real estate availability and grid capacity.
• Charging power requirements: Truck-dedicated chargers must deliver 350 kW to 1 MW per stall. Most existing public charging infrastructure in Europe is 50–150 kW, designed for passenger cars. Retrofitting these sites for trucks requires new transformers, new cabling, and often a new grid connection entirely.
• Depot charging is the hidden majority: SIA Partners estimates that 60–70% of truck charging will happen at depots overnight, not at public fast chargers. This shifts the investment burden to fleet operators, who must secure grid connections at their own facilities. Many logistics sites are in industrial zones with limited grid capacity.
• Cross-border interoperability: The Radius-Milence roaming agreement is a step forward, but fragmented payment systems, different connector standards (CCS vs. MCS), and national grid codes still complicate cross-border operations.

The IEA’s Global EV Outlook 2026 adds a further nuance: the agency’s counting methodology includes public passenger-car chargers that can accommodate truck fast charging. This is a generous interpretation. A 150 kW CCS charger can technically charge a truck, but it is not practical for a 600 kWh battery. The IEA’s data therefore overstates the usable truck-charging network. The real number of truck-dedicated, high-power (350 kW+) chargers in Europe is in the low thousands, not the tens of thousands.

What This Means for Fleet Operators and Investors

For a fleet operator considering an electric truck order today, the decision calculus is clear: the truck is ready, but the charging ecosystem is not. The 47% sales growth suggests many operators are making the leap anyway, betting that infrastructure will catch up. That bet is partially rational—early movers secure grid connections and depot space before the rush—but it carries operational risk.

For investors, the opportunity is not in building more passenger-car chargers; that market is approaching saturation in urban areas. The opportunity is in heavy-duty charging hubs along TEN-T corridors, with MCS technology, grid connections secured years in advance, and long-term contracts with fleet operators. The Milence model—a joint venture backed by Volvo, Traton, and Daimler—is the template. The €120 million raised in May 2026 is a validation of that model, but the capital requirement for full European coverage is an order of magnitude larger.

The Precedence Research projection of USD 492.59 billion for the total EV charging infrastructure market by 2035 is a useful macro indicator, but it masks the specific urgency of the heavy-duty segment. Passenger-car charging growth is linear; heavy-duty truck charging growth must be exponential to meet 2030 climate targets. The IEA’s 2026 outlook makes clear that current deployment rates are insufficient.

The Verdict: 2030 Targets Are at Risk Unless Grid Reform Accelerates

The evidence from all six sources points to a single conclusion: the electric truck transition is being held back not by vehicle supply or battery technology, but by the slow, bureaucratic process of connecting high-power chargers to the grid. The 47% sales growth in H1 2026 is a demand-side signal that the market is ready. The supply side—grid connections, MCS charger deployment, and depot electrification—is lagging by 2 to 3 years.

The solutions are known: streamlined grid connection permitting, standardized MCS deployment, financial incentives for depot charging, and cross-border interoperability. The Radius-Milence partnership shows that the private sector can move quickly when agreements are structured properly. But without policy intervention to shorten grid connection queues, the 2030 CO2 reduction targets for heavy-duty transport will be missed. The trucks will be sold; they just won’t be able to drive where they are needed.

Sources

Charged EVs — https://chargedevs.com/newswire/radius-gives-its-customers-access-to-milences-european-heavy-duty-electric-truck-charging-network (Thu, 09 Jul 2026)

SIA Partners — https://www.sia-partners.com/en/insights/publications/electric-trucks-europe-faces-charging-infrastructure-challenge (Thu, 30 Jul 2026)

TechTimes — https://www.techtimes.com/articles/321977/20260729/europes-electric-trucks-jumped-47-h1-2026-charging-gap-threatens-2030-goals.htm (Wed, 29 Jul 2026)

IEA Global EV Outlook 2026 — https://www.iea.org/reports/global-ev-outlook-2026/electric-vehicle-charging-chap-6-and-10 (Wed, 20 May 2026)

MarketResearchFuture — https://www.marketresearchfuture.com/reports/electric-vehicle-charging-station-market-5401 (Sat, 01 Oct 2022)

Precedence Research — https://www.precedenceresearch.com/electric-vehicle-charging-infrastructure-market (Thu, 13 Aug 2026)