Electric trucks are no longer merely demonstration vehicles. They are working in ports, industrial areas, distribution networks and, increasingly, on longer routes. Yet the commercial transport sector is not experiencing a uniform technological revolution. The pace of change differs sharply between regions, and the constraints facing a small road haulier are not the same as those facing a large retailer with its own depots.

In 2025, electric trucks accounted for 9% of global new truck sales, according to the International Energy Agency (IEA). Sales more than doubled, but the headline figure obscures a substantial geographic divide: China accounted for more than 90% of those sales. In Europe, electric trucks were still a small minority of new vehicles. Meanwhile, an October 2026 survey of road freight operators found that high vehicle costs and customers' reluctance to pay more for greener transport remain major barriers.

The industry is moving toward lower emissions. The harder question is which changes can be made economically, on which routes, and at what speed.

A market growing at two different speeds

The IEA's Global EV Outlook 2026 reports that worldwide electric truck sales passed 400,000 vehicles in 2025. Battery-electric models accounted for roughly 97% of electric truck sales, while heavy freight truck electrification accelerated particularly quickly.

China is driving that expansion. One in four trucks sold there in 2025 was electric. The country benefits from a large domestic vehicle and battery industry, a broad range of truck models and transport operations that are well suited to predictable routes. Port movements, industrial logistics and other repetitive journeys can provide the regular schedules needed for depot charging or, in some applications, battery swapping.

Europe's market looks different. IEA figures put European electric truck sales at nearly 17,000 in 2025, approximately 3% of total truck sales in the region. Growth was substantial, but widespread electrification of long-distance road freight remains further away than the figures for China might suggest. Large batteries, higher initial investment and access to high-power charging are still material constraints.

These distinctions matter. A sales boom in one country does not mean that the same vehicle, charging model or economics can immediately be replicated elsewhere. Nor should the share of new electric truck sales be confused with the share of the entire vehicle fleet: trucks can remain in service for many years, so changes to the operating fleet will be slower than changes to annual sales.

The economics are changing, but not evenly

Fleet managers ultimately buy transport capacity, not just vehicles. The relevant calculation includes the purchase price, financing, energy, maintenance, charging equipment, insurance, payload, utilisation, downtime and residual value.

The IEA estimates that electric trucks can still cost two to three times as much to purchase as comparable diesel models. Their operating economics may be more attractive because electric drivetrains are energy-efficient and typically have fewer mechanical service requirements. But lower running costs are not enough if the truck cannot complete its duty cycle, if charging reduces productive hours or if grid upgrades require substantial capital.

The balance is already shifting in some markets. According to the IEA, total cost of ownership for electric trucks is competitive in China, while parity in Europe is expected to become more achievable toward 2030. This is an outlook, not a guarantee for every operator: electricity tariffs, annual mileage, financing arrangements and national road charges can all change the result.

A survey published by IRU and Trimble on 22 October 2026 provides a useful counterpoint to technology forecasts. Around 70% of Western European and 71% of Eastern European respondents said their customers were unwilling to pay the additional cost of decarbonisation. The survey covered more than 1,000 transport operators in 36 countries; it reflects participating operators' views, not a census of every carrier.

The main barrier to cleaner road freight is increasingly not whether the technology works. It is whether operators can finance the transition while still providing transport at prices customers will accept.

That tension is especially acute for smaller carriers, which may have limited borrowing capacity and less flexibility to negotiate long-term energy contracts or dedicated charging access. For them, a technically viable electric truck can still be a difficult investment.

Charging is becoming part of transport infrastructure

For commercial fleets, the most convenient charging station is often the depot. Vehicles returning to a predictable base can charge overnight or during scheduled stops, allowing operators to control costs and reduce dependence on public infrastructure.

But a depot is not simply a parking area with new plugs. Several trucks charging simultaneously may require major electrical capacity, new transformers, grid connection work and systems to distribute power intelligently. Planning the infrastructure can take longer than acquiring the vehicles. The economics also change when a fleet operates from leased properties or several depots with different grid conditions.

Long-haul freight introduces another challenge. A corridor network must offer sufficiently powerful chargers at the right places, with reliable access, space for articulated vehicles and predictable prices. Charging points designed for passenger cars cannot necessarily serve a fully loaded tractor-trailer during a driver's regulated rest break.

The European Union's Alternative Fuels Infrastructure Regulation (AFIR) sets phased requirements for dedicated heavy-duty charging. By 2030, the core Trans-European Transport Network is intended to have charging pools no more than 60 km apart, with substantial minimum power capacity; the comprehensive network has a different spacing and capacity requirement. These are deployment targets, not proof that all corridors already meet them.

The IEA reports that the EU has more than 1,000 charging points dedicated to electric trucks. That is progress, but the IRU's October 2026 industry assessment still identified major gaps in high-power infrastructure and grid access. The number of installations alone does not show whether a given route is ready for electric operations: location, power output, queueing and uptime are equally important.

Regulation sets the direction, with some flexibility

The EU's emissions standards for new heavy-duty vehicles create a long-term signal for vehicle manufacturers. The revised framework calls for reductions in average CO2 emissions from relevant new heavy-duty vehicles of 45% from 2030, 65% from 2035 and 90% from 2040, subject to the categories and technical rules specified in legislation.

These are manufacturer fleet-average standards for new vehicles; they do not mean every existing diesel truck must be replaced by those dates. The distinction is important because corporate fleet renewal takes place over many years.

In March 2026, the Council of the EU adopted a targeted change to the way some manufacturers can accumulate emissions credits before 2030. The measure recognised slow charging infrastructure deployment and aimed to smooth compliance. It did not cancel the longer-term emissions-reduction objectives. A broader review of heavy-duty CO2 standards is expected in 2027.

For transport operators, regulation influences costs through several channels: new-vehicle supply, road toll differentiation, access to urban areas and potential customer reporting requirements. Yet regulations do not remove the operational question of whether a particular route has access to affordable energy and reliable service support.

Batteries, hydrogen and renewable fuels are not interchangeable

Battery-electric trucks have a clear advantage in eliminating tailpipe exhaust and using electricity efficiently. For urban distribution, regional freight and predictable industrial journeys, the operational case is increasingly tangible. Longer routes are becoming technically possible, although the economics and charging arrangements vary.

Hydrogen fuel-cell trucks offer the possibility of fast refuelling and long-distance operation, but commercial deployment faces challenges of vehicle cost, hydrogen production, fuel price and refuelling infrastructure. The emissions benefit depends heavily on how the hydrogen is produced. Hydrogen made from fossil fuels without effective emissions controls does not deliver the same climate outcome as low-emission hydrogen.

Renewable diesel and certain biofuels may lower lifecycle emissions for existing vehicles under appropriate feedstock and production conditions. Their availability, sustainability and real emissions impact differ widely. A fuel label by itself is not sufficient evidence of decarbonisation, and limited sustainable feedstocks create competition among transport sectors.

For fleets operating ships, aircraft, buses, vans and trucks, the technology choices also differ. Commercial transport cannot be treated as a single vehicle category with a universal replacement timetable. A more realistic strategy matches the energy source to the application and evaluates its climate impact consistently.

Tailpipe emissions tell only part of the story

A zero-emission vehicle at the point of use is not necessarily zero-emission across its entire lifecycle. Battery manufacture, vehicle production, electricity generation, maintenance and end-of-life processing all matter. The relevant comparison is between the lifecycle emissions of practical alternatives performing comparable transport work.

Electric trucks generally benefit from the higher efficiency of electric powertrains, and their lifecycle performance improves as electricity supply becomes less carbon-intensive. In its EV Transition Check 2026, the International Council on Clean Transportation estimates that a battery-electric long-haul truck can have 86% lower lifecycle greenhouse gas emissions than a comparable diesel truck under the study's European assumptions. This is a modelled comparison, not a universal percentage for every grid, payload and route.

Operators and freight customers therefore need meaningful metrics: emissions per tonne-kilometre, loaded and empty mileage, vehicle utilisation, electricity or fuel consumed, and clearly stated accounting boundaries. A company that electrifies part of its fleet but increases empty running may achieve less than expected at the level of its overall freight operations.

Air pollution also requires separate treatment. CO2 is the principal greenhouse-gas concern, while nitrogen oxides and fine particles affect local air quality and health. Vehicle exhaust standards, cleaner energy and reduced urban traffic exposure can complement — but should not be confused with — climate measures.

Lower emissions do not begin and end with buying vehicles

Much of the available progress comes from logistics decisions that predate the current electric-truck boom. Better vehicle loading, fewer empty journeys, efficient routing, preventative maintenance and driver training can reduce fuel consumption in existing fleets. These interventions are usually less capital-intensive than replacing an entire vehicle population.

They are not always straightforward. Greater consolidation can lengthen delivery windows; shifting freight from road to rail depends on terminal access, network reliability and service frequency; and a route-planning algorithm cannot override delivery restrictions or drivers' working-time rules. Still, these measures deserve serious attention because they affect every drivetrain, including the electric trucks of the future.

IRU's 2026 survey found that routing optimisation and eco-driving were among the measures operators most frequently reported taking. The finding illustrates a practical priority: companies often adopt solutions that have a plausible operational payback before committing to more expensive technology changes.

Which fleets can move first?

The strongest early cases are typically identifiable through operational data rather than promotional vehicle specifications. Fleet managers can assess the transition route by route:

  • Daily distance and duty cycle: Can the truck complete its planned work with dependable charging windows?
  • Depot and corridor access: Is sufficient power available where the vehicle actually stops?
  • Payload and utilisation: Will the technology maintain revenue-generating capacity, including in peak periods?
  • Total cost of ownership: What happens under realistic electricity, diesel, financing and residual-value scenarios?
  • Emissions accounting: How much carbon is avoided per tonne-kilometre, using transparent lifecycle assumptions?
  • Operational resilience: What is the contingency plan for charger outages, unusual loads or disrupted schedules?

A limited pilot with clear baseline data can provide more useful evidence than a fleet-wide commitment based solely on manufacturer claims. It can also reveal costs that are easy to miss in a procurement presentation: staff training, new dispatch procedures, battery performance in winter and the coordination required between transport operations and energy management.

A transition measured in operating decisions

The coming years are likely to produce a more diverse commercial vehicle market. Some routes will electrify quickly, while others will retain combustion vehicles longer or experiment with alternative fuels. Regional policies, vehicle supply chains and electricity infrastructure will continue to shape the pace.

The global market is moving, as the IEA's 2025 sales figures demonstrate. But the IRU's 2026 survey shows why rapid technological progress does not automatically translate into fast fleet replacement. Transport operators must reconcile environmental targets with thin margins, customer contracts and the basic requirement to deliver goods reliably.

For the industry, the useful question is no longer simply whether lower-emission commercial transport is possible. It is where the operational and economic evidence is strong enough to scale it — and what infrastructure, financing and logistics changes are needed elsewhere.

Further Reading