Battery-Electric Truck Integration For Cross-Border Automotive Supply Chains

MAN Truck & Bus and JS Logistics are cooperating to integrate battery-electric heavy goods vehicles into cross-border inbound logistics operations. This supply chain initiative utilizes electric trucks to transport automotive components between international supplier facilities and central manufacturing plants.

Addressing Logistics Challenges Through Cooperation
Heavy goods transport in the automotive supply chain traditionally relies on diesel combustion, contributing heavily to industrial emissions. Transitioning to battery-electric vehicles requires overcoming range limitations and charging infrastructure constraints on long-haul cross-border routes. To address this complexity, MAN Truck & Bus provides the heavy-duty electric vehicles and technical route consulting, while JS Logistics acts as the operational freight carrier, managing the physical deployment, driver scheduling, and hub distribution.

System Architecture and Operational Responsibilities
The technical platform utilizes battery-electric trucks engineered for heavy freight applications. MAN Truck & Bus supplies the vehicles and analyzes operational profiles to map necessary charging infrastructure integration. JS Logistics executes the transport network, handling physical routing and load consolidation.

To overcome battery range limitations on continuous routes extending up to 520 kilometers, the partners implemented a meeting traffic operational logic. In this system, two electric trucks travel toward each other from opposite departure points and exchange loaded trailers at a designated midpoint. This mechanism optimizes vehicle utilization, ensures continuous freight movement, and aligns required charging intervals with logistical operational constraints.

Infrastructure Deployment and Route Integration
The initial deployment phase introduced five battery-electric trucks operating between supplier facilities in Hungary and production plants in Germany. Specific operations include direct full-truckload routes between Lébény, Hungary, and Munich, Germany.

Additional vehicles operate from consolidation hubs in Győr, Hungary, and Kirkel, Germany. The Kirkel logistics center functions as a transshipment node for components originating from France, the Iberian Peninsula, and the British Isles. From this hub, the electric vehicles route consolidated components to manufacturing facilities in Munich and Nuremberg over distances ranging from 350 to 400 kilometers.

Target Applications and Expected Impact
The primary application area is automotive component distribution. By implementing consolidated hub transports and strategic trailer exchange mechanisms, the partnership maintains process stability and delivery schedules without relying on internal combustion engines. This architectural approach establishes a measurable reduction in localized emissions during heavy material transport. The technical objective of the project is to scale the operation to incorporate 50 battery-electric vehicles into the inbound logistics network by mid-2026, supported by a parallel expansion of high-capacity charging infrastructure at designated manufacturing and service centers.

Edited by Aishwarya Mambet, Induportals Editor, with AI assistance.

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