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FH Aero Electric Begins Rolling Off the Production Line in Sweden with 725 kWh Usable Battery and New Electric Axle Architecture, While Volvo Seizes IAA Transportation to Showcase a Second Configuration Capable of Operating with a Combined Gross Weight of Up to 80 Metric Tons
Volvo Trucks has taken a significant step toward extending electric trucks beyond urban deliveries and regional operations. The manufacturer has commenced serial production of the FH Aero Electric with extended range, capable of traveling up to 700 kilometers on a single charge. Simultaneously, it unveiled at IAA Transportation 2026 an electric configuration developed for extremely heavy operations, with a combined gross weight of up to 80 metric tons. This information was released by Electrive on Monday, September 14.
Furthermore, both announcements illustrate how Volvo is aiming to address different challenges. While the FH Aero Electric expands the distance an electric heavy truck can cover, the new 80-ton configuration addresses operations where the weight carried still heavily favors diesel trucks. Thus, the company is not only increasing battery capacities but also expanding the type of jobs its electric vehicles can perform.
However, there is a fundamental difference between the two vehicles. The 700-kilometer truck is not the same setup operating at 80 metric tons. In the heavy model designed for extreme loads, the range reaches up to 450 km with 64 metric tons and up to 420 km when the combined gross weight rises to 74 or 76 metric tons.
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After Unveiling the Project Months Ago, Volvo Finally Started Production of the FH Aero Electric, and the First 700 km Trucks Have Begun Rolling Off the Swedish Factory in Tuve
The most significant shift is encapsulated in the word production.
The FH Aero Electric with extended range has been available for orders since June. However, Volvo has now officially started manufacturing the model in series at its Tuve facility near Gothenburg, Sweden.
Additionally, this new generation includes FH Electric, FM Electric, and FMX Electric. According to the manufacturer, these models greatly increase the number of operations that can use electricity instead of diesel.
The difference is most noticeable in terms of distances.
During the early years of electrifying heavy-duty trucks, short routes represented the most favorable scenario. After all, the truck could return to the depot, recharge during predictable periods, and repeat nearly the same route every day.
On the other hand, long-distance road transport demands much more.
In this context, each additional kilometer of range can prevent a stop. Moreover, every minute saved during recharging can translate to more time spent on the road transporting goods.
Therefore, achieving up to 700 km on a single charge brings the FH Aero Electric closer to routes that, until recently, remained almost entirely dependent on diesel.
To Find Space for Such a Large Battery Without Simply Lengthening the Truck, Engineers Altered the Powertrain Architecture and Positioned Propulsion Components Directly in the New Electric Axle
The increased range necessitated a structural change.
Volvo has developed a new e-axle technology.
This innovation has allowed the manufacturer to free up space in the chassis to install a significantly larger amount of batteries.
Consequently, the FH Aero Electric can now accommodate eight 97.5 kWh battery packs.
Together, they total 780 kWh of installed capacity.
However, the effectively usable capacity is 725 kWh.
It is precisely this massive energy reserve, combined with the truck’s efficiency, that allows it to achieve the 700 kilometers claimed by the manufacturer.
Still, Volvo itself emphasizes that the range can vary.
Weather, air resistance, total weight, and how the driver operates the truck directly affect the outcome.
Therefore, 700 km represents the maximum claimed range, not a guaranteed distance in any operation.
When a truck can carry more cargo in a single trip, a carrier can reduce the number of trips required to move a certain volume.
This, in turn, increases productivity per vehicle.
Jan Hjelmgren, senior vice president of product management at Volvo Trucks, argues that higher total weights can lower transportation costs and environmental impact. If these operations also shift to electric power, he says, the environmental reduction could advance even further.
However, there is an important limitation.
It’s not enough for the truck to support 80 tons.
The legislation must allow it as well.
For this reason, Volvo does not initially intend to offer this configuration in all European markets.
The 80-ton giant cannot simply operate on any European road, and Volvo itself selected the first countries based on regulations that allow much heavier combinations
The manufacturer plans to initially target the model for Sweden, Norway, Finland, Denmark, the Netherlands, and Switzerland.
Germany, for example, does not appear as a priority market for this configuration.
The reason lies precisely in the rules for heavy transport.
In certain countries, combinations of 64 tons are part of the operational reality. Sweden and Finland allow operations with 74 or 76 tons under certain conditions.
Therefore, the technical limit of 80 tons does not mean that all customers will operate daily with that weight.
In practice, each operation will depend on local legislation, the type of cargo, and the available infrastructure.
Still, developing an electric truck for this capacity expands the role of technology within heavy transport.
This shift is significant as electric vehicles have long since stopped competing solely in light and urban segments.
Volvo is now trying to solve another part of the equation because traveling hundreds of kilometers doesn’t help much if a commercial truck needs to remain stationary for hours to recharge the battery
Range is only half the problem.
The other half is recharging.
A personal vehicle can stay connected for several hours overnight without significant consequences.
A commercial truck operates differently.
The longer it stays idle, the lower its productivity can be.
That’s why the new generation uses megawatt-scale charging technology. Volvo itself highlights MCS as one of the technologies that allows its electric vehicles to take routes previously dominated by diesel.
Thus, the manufacturer is trying to align charging times with the breaks that are already part of the road transport routine.
However, this creates another challenge.
The infrastructure needs to keep pace with the trucks.
Charging a battery with hundreds of kWh in a short time requires enormous power. Consequently, roadside stations, distribution centers, and logistics terminals will need connections that far exceed those found at conventional charging points.
Therefore, charging infrastructure may become as important as the range of the vehicles themselves.
The race to replace diesel begins to shift as manufacturers stop asking whether an electric truck can work and start competing on how many kilometers and how many tons it can handle
The first heavy electric trucks needed to prove that the technology worked.
Now, however, the competition has entered another phase.
Manufacturers are starting to compete on range.
Payload capacity.
Charging time.
Efficiency.
And variety of applications.
Electrive itself highlights that MAN showcased a new generation of the eTGX at the same IAA Transportation, capable of achieving up to 720 kilometers under ideal conditions, while the indicated daily range exceeds 600 km.
Thus, Volvo is not alone.
The advancement of the FH Aero Electric occurs within a larger industrial competition to bring batteries to one of the toughest sectors to decarbonize.
Still, Volvo’s battery draws attention for its size.
There are 780 kWh installed and 725 kWh usable.
Consequently, the evolution of batteries for electric vehicles directly influences how far heavy road transport can move away from fossil fuels.
The difference between the two announcements avoids an important confusion because Volvo has managed to reach 700 km of range and 80 tons, but did not place both numbers on the same truck and in the same operation
This distinction deserves highlighting.
The extended range FH Aero Electric goes up to 700 kilometers on a single charge.
Meanwhile, the extreme load configuration has been developed for a combined gross weight of up to 80 tons.
When the second configuration operates with 64 tons, the disclosed range reaches 450 km.
When operating with 74 or 76 tons, it reaches 420 km.
Therefore, simply stating that “Volvo created an 80-ton electric truck with 700 km of range” would confuse two different advancements.
Even so, when analyzed separately, the numbers show exactly how the strategy is expanding.
On one side, more distance.
On the other, more weight.
And in both cases, Volvo is trying to tackle tasks that previously seemed unsuitable for trucks powered solely by batteries.
The start of production shifts the weight of the promise because now the 700 km truck needs to prove outside of events and presentations that it can turn range into productivity for real carriers
Prototypes can achieve impressive numbers.
However, mass production brings another reality.
Now customers come into play.
Drivers.
Commercial routes.
Winter.
Heat.
Hills.
Cargo.
Traffic.
Deadlines.
And thousands of kilometers accumulated.
Therefore, the rollout of the first vehicles from the Tuve factory marks an important milestone.
Volvo is no longer just showcasing what its new generation can do but is now putting the vehicles into operations where carriers can assess cost, efficiency, and productivity.
Additionally, the manufacturer will produce the new generation of electric vehicles at facilities in Tuve, Sweden, and Ghent, Belgium.
This way, the company begins to transform a technology that was previously limited to specific applications into an alternative for a larger portion of heavy transport.
After conquering cities and regional routes, electric trucks are beginning to advance precisely in long-haul journeys and extreme loads that once seemed to guarantee decades of advantage for diesel
Diesel still has significant advantages.
The refueling infrastructure already exists on a massive scale.
Moreover, refueling a tank remains quick.
Diesel trucks can also travel long distances carrying substantial weight without depending on chargers of hundreds of kilowatts.
However, the technological gap is closing.
Now, Volvo is producing an electric model that can travel up to 700 km.
At the same time, it is developing another model capable of handling operations of up to 80 tons.
Additionally, the MCS technology is attempting to reduce the impact of charging breaks.
Consequently, the discussion shifts from simply the possibility of electrifying heavy trucks.
The question now becomes which operations remain economically unfeasible for electrification.
And that list is beginning to shrink.
The FH Aero Electric reaches production just as the industry discovers that replacing diesel does not depend on a single revolutionary battery but on simultaneously changing the truck, chargers, and logistics operation
The 700 kilometers is impressive.
So are the 80 tons.
However, neither of these figures alone addresses the challenge.
To replace a diesel truck, an electric one must carry sufficient cargo.
Moreover, it needs to cover a distance compatible with the route.
Next, it must find an adequate charger.
And finally, it has to accomplish all this at a cost that makes sense for the carrier.
Therefore, Volvo’s new generation combines different solutions.
Electric axle.
More battery.
Aerodynamics.
Charging in megawatts.
Higher cargo capacity.
Thus, each technology addresses a different part of the problem.
Volvo itself states that the new generation allows for the electrification of a significantly larger portion of transport tasks than before.
However, the definitive proof will come on the roads.
It is there that companies will discover if the technical gains can offset initial costs, infrastructure, and charging planning.
Volvo has already put the 700 km truck into production and is preparing its 80-ton giant for 2027, but the next challenge will be figuring out if the roads can keep up with the pace of the vehicles
The FH Aero Electric has already started production.
Meanwhile, the gradual rollout of the heavy-duty FH Electric is set to begin in early 2027.
Thus, the embedded technology is advancing rapidly.
Now, however, another race is beginning.
Highways will need chargers.
Terminals will require electrical power.
Carriers will need to reorganize routes.
And drivers will need to fit charging into their journeys.
Still, there is a clear shift.
A few years ago, asking whether an electric truck could tackle long distances seemed ambitious.
Now, a model with up to 700 kilometers is rolling off the assembly line, while another project aims to electrify trucks weighing up to 80 tons.
Diesel still dominates much of these operations.
However, for the first time, some of the tasks that seemed protected by the enormous energy advantage of fuel are beginning to face electric competitors specifically designed to take them on.
Do you believe that 700 km of range is sufficient to place electric trucks on major highways, or does charging infrastructure still need significant advancements before they can truly challenge diesel?
