Freight technology - rail freight as a logistics system

No other mode moves bulk commodities across European borders at the volumes rail does — yet rail freight’s share of the continent’s inland transport market remains under pressure from road competition, structural shifts in industrial demand, and an interoperability framework that is still being completed.

European railways carry approximately 430 billion tonne-kilometres of freight per year, representing around 17% of total inland freight transport by tonne-kilometre — a category covering road, rail, and inland waterways.

Scale and modal position

Road accounts for approximately 77–78% of the same measure. The modal split varies significantly by country: rail holds above 30% in Austria, Switzerland, and the Baltic states, where topography, industrial geography, or inherited network density favour it, and below 10% in several southern and southeastern European countries.

Rail’s share has held broadly stable across the EU over the past decade, masking a structural shift: bulk commodity traffic — coal, ore, chemicals — has declined with deindustrialisation and the energy transition, while intermodal container and swap-body traffic has grown.

Network and corridor structure

The European rail freight network operates across approximately 201,000 km of track within the EU-27, the majority shared with passenger services. Dedicated freight lines are limited to a small number of industrial corridors and port approaches.

Eleven Rail Freight Corridors (RFCs) were established under Regulation (EU) 913/2010 and subsequent amendments, providing coordinated infrastructure management across borders. One-Stop-Shops, operated jointly by the infrastructure managers on each corridor, handle capacity requests and pre-arranged path allocation.

Regulation (EU) 2024/1679 is integrating the RFC framework into the new European Transport Corridors (ETCs).

Traffic types and operating models

Rail freight divides into three commercial segments. Full trainload (FTL) traffic — unit trains carrying a single commodity or customer shipment from origin to destination — is the operationally simplest and most financially robust. Intermodal traffic carries containers, swap bodies, or semi-trailers, typically via terminal-to-terminal haul with road collection and delivery at each end. S

ingle wagon load (SWL) traffic assembles trains from individual wagon consignments at marshalling yards, providing door-to-door rail service for smaller shippers.

SWL has been under sustained commercial pressure across Europe. Several incumbents, including DB Cargo and Fret SNCF, have restructured or withdrawn from parts of their SWL networks on grounds of cost.

SWL remains operationally relevant for chemical, agricultural, and industrial customers without intermodal access, but its long-term viability depends on digitally coordinated load planning and reduced wagon dwell times.

Interoperability and regulation

Cross-border rail freight in Europe is governed by a layered framework. Network access is regulated under Directive 2012/34/EU (recast), which requires infrastructure managers to provide non-discriminatory access to freight operators holding a valid safety certificate.

Technical interoperability is addressed through Technical Specifications for Interoperability (TSIs). The Telematics Applications for Freight TSI (TAF TSI) defines data exchange standards for wagon tracking, train composition, consignment data, and estimated time of arrival across operator and border boundaries.

The Freight Wagons TSI (WAG TSI) sets design, maintenance, and running gear requirements for wagons in international traffic.

The transport of dangerous goods by rail is governed by RID (Regulations concerning the International Carriage of Dangerous Goods by Rail), an appendix to the Convention concerning International Carriage by Rail (COTIF).

Digitalisation

Rail freight has historically operated with limited real-time data exchange between operators, infrastructure managers, and customers. The TAF TSI framework provides the regulatory basis for standardised electronic messaging; implementation remains incomplete, with data exchange quality varying by corridor and operator.

Electronic Wagon Administration (EWA) systems automate wagon handover documentation between infrastructure managers and operators. Digital Train Management (DTM) programmes aim to replace paper-based train preparation and en-route monitoring.

Several operators and infrastructure managers are trialling automatic train operation (ATO) for freight at Grade of Automation 2 (GoA2) in controlled environments, primarily for port and terminal shunting.

Telematics devices on wagons — providing GPS position, shock, temperature, and door status — are increasingly standard on privately owned fleets and are penetrating the common-user wagon pool.

Policy context

The European Commission’s Sustainable and Smart Mobility Strategy (2020) targets a doubling of rail freight traffic by 2050. A separate target — shifting 30% of road freight over 300 km to rail or inland waterway by 2030, and over 50% by 2050 — originates from the Commission’s 2011 White Paper on Transport. Neither target is binding on member states or operators.

ERTMS deployment on the core RFC network is required under Implementing Regulation (EU) 2017/6, with deadlines extending to 2030–2040 by corridor and line category. ERTMS is a prerequisite for cross-border freight at higher line speeds and the technical foundation for future automation.

The freight sector has no equivalent of the passenger Single European Railway Area provisions on through-booking — cross-operator coordination remains primarily bilateral and commercial.