Real-world data from Mercedes-Benz electric trucks reveals a new phase in Germany's industrial electrification transformation.

Industrial Phenomenon: Real Data Dispels Doubts

In 2025, Mercedes-Benz Trucks disclosed actual operational data of its eActros series electric trucks within its own supply network. This data did not come from laboratories or test tracks, but from thousands of commercial transport missions on domestic German and cross-border logistics routes. For observers who have long followed the electrification process of German industry, the significance of these figures far exceeds a product launch—they are answering a fundamental question that has plagued the industry for years: Can electric heavy-duty trucks truly replace diesel trucks in terms of economics and reliability?

Event Background: From Pilot to Large-Scale Validation

According to Automotive World, Mercedes-Benz Trucks deployed approximately 80 eActros trucks for inbound logistics at its Wörth plant in Germany, covering 30% of inbound routes and accumulating 6 million miles (approximately 9.66 million kilometers). Data was collected from over 3,000 transport missions and 3,100 charging events, covering various scenarios such as short-distance shuttle, regional distribution, and long-distance freight. Among these, the eActros 600 traveled an average of 600 kilometers per day on the long-distance route from Wörth to Bielefeld, with energy consumption of about 100 kWh per 100 kilometers; on the international route from Heitigrad (South Tyrol, Italy to Wörth), even under winter low-temperature mountain conditions, the vehicle still completed transport tasks with a total weight of up to 42 tons, achieving energy recovery of 25 kWh per 100 kilometers.

Underlying Reasons: Dual Drivers of Cost and Carbon Emissions

Behind this data disclosure is the dual pressure facing the German commercial vehicle industry. On one hand, EU carbon emission regulations set strict emission reduction targets for heavy-duty vehicles: from 2030, newly registered heavy-duty vehicles must reduce emissions by 45% compared to 2019, while the room for technological improvement in diesel vehicles is narrowing. On the other hand, German industry faces the叠加 challenge of rising energy costs and supply chain carbon footprint disclosure requirements (such as CBAM). Against this backdrop, electric trucks have transformed from an "environmental option" to an "economic option": the three eActros trucks operated by Logistik Schmitt complete charging during loading and unloading operations, saving over €2,300 per month in tolls and reducing annual CO2 equivalent emissions by 56 tons; FERCAM's international route saves up to €3,900 per month in tolls. These figures clearly show that under the current German highway toll system, which offers preferential policies for electric trucks, the total cost of ownership of electric trucks has become competitive.

Impact on German Industry: The Chain Reaction of Logistics Network Electrification

For the German manufacturing system, the large-scale application of electric trucks will bring threefold impacts:First, a reshuffling of supply chain logistics costs. German industry is highly dependent on just-in-time production and efficient logistics. If electric trucks can outperform diesel trucks in cost, they will directly reduce inbound logistics costs for manufacturing companies, especially in industries with heavy logistics reliance such as automotive and machinery. Mercedes-Benz's practice at its own factories shows that electric trucks not only achieve equal or even higher transport efficiency but also reduce marginal energy consumption through technologies like regenerative braking.

Second, a substantial reduction in manufacturing companies' carbon footprint. The case of an annual reduction of 90 tonnes of CO2 equivalent means that a single company's inbound logistics carbon reduction can achieve more than a 30% decrease through vehicle electrification. This helps German industry meet the EU's Product Environmental Footprint (PEF) standards and customer demands for low-carbon supply chains.

• Third, a push effect on charging infrastructure construction. The prerequisite for the successful operation of the eActros is the availability of reliable charging points along the route, especially the "opportunity charging" model that uses loading and unloading waiting time to charge. This practice will accelerate the deployment of charging facilities at logistics hubs, highway service areas, and factory sites in Germany, thereby paving the way for larger-scale electrification of commercial vehicles.Looking ahead to the next 3 to 10 years, the electrification of commercial vehicles will go through three stages:
• Short-term (2025-2028): Mainly focused on short-distance fixed routes (such as ports, factory logistics), with the penetration rate of electric trucks increasing to around 10%, driven primarily by toll discounts and access restrictions in low-emission zones.
• Medium-term (2028-2032): With the widespread adoption of high-power megawatt charging (MCS) standards and improvements in battery energy density, long-haul trunk transportation begins to extend electrification, with penetration rates gradually approaching 30%. The German industrial logistics network will undergo significant structural adjustments, and the layout of charging nodes will influence the location of logistics hubs.
• Long-term (after 2032): If cost breakthroughs are achieved in solid-state batteries or hydrogen fuel cells, electric and new energy alternative technologies will form a complementary landscape, but the battery-electric route, with its higher energy efficiency, is likely to dominate. Germany's global competitive advantage in industry will partly depend on whether it can first turn the cost of electrified logistics into an implicit barrier in the supply chain.

Trends worth continuous attention include: the progress of the German government's special investment in charging infrastructure, the impact of the EU Emissions Trading System on the marginal cost of heavy-duty vehicles, and whether the "Transportation as a Service" (TaaS) model in the commercial vehicle sector will disrupt the asset ownership model of the transportation industry. The data released by Mercedes-Benz this time is a technological indicator of this inflection point.

In response, the German industry needs to not only expand the procurement of electric trucks but also systematically embed electrification variables into production networks, logistics scheduling, and energy management—this is both the fulfillment of decarbonization commitments and the cornerstone of the future competitiveness of German manufacturing.