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740m train length

A 740-meter freight train carries more wagons than the shorter trains commonly used on many European routes.

Transport efficiencyTrains

Introduction

A 740-meter freight train carries more wagons than the shorter trains commonly used on many European routes. This new standard supports more freight per train movement. It requires compatible routes, passing loops, yards, terminals, signalling and operational procedures. For optimal implementation, the full port-to-hinterland chain must support this longer train length. One short track can limit the entire service.

Value proposition

  • Potential to lower costs and emissions per tonne

  • Improve scarce rail-capacity use

  • Strengthen hinterland connectivity

  • Improve competitiveness trains

    Compared to trucks

Longer trains can move more cargo within the same train path and with the same locomotive. This has the potential to lower costs and emissions per tonne and improve scarce rail-capacity use. Ports can strengthen hinterland connectivity and make rail more competitive compared with road transport, by lengthening the trains. Benefits are only achieved when terminals, port railways, main lines and border crossings are aligned.

Port applicability

The topic is only relevant for ports with rail connection and most relevant to ports with high and stable rail-freight volumes. Large container, bulk and industrial ports are strong candidates. Inland ports and rail terminals can also benefit when they are connected to European freight corridors. Ports with short sidings or fragmented terminals may need significant upgrades. A large demand for more capacity on trains from railway undertakings and shippers is essential.

Groups of innovations

  • Longer terminal tracks

    Enlarge loading, unloading and arrival tracks to handle a complete 740-metre train. Timing: medium term; Pros: avoids splitting trains; Cons: requires space and investments.

  • Yard and passing-loop upgrades

    Enlarge reception, departure and crossing tracks and adapt switches and safety distances. Timing: medium to long term; Pros: supports network capacity; Cons: can be costly in dense areas.

  • Signalling and ERTMS adaptation

    Align train detection, signals, stopping margins and traffic management with longer trains. Timing: medium term; Pros: safe interoperable operation; Cons: depends on corridor-wide deployment.

  • Terminal process optimisation

    Prepare cranes, reach stackers, staff and planning systems for longer loading windows. Timing: short term; Pros: improves asset use; Cons: requires operational coordination.

  • Train assembly and digital planning

    Coordinate paths, wagon order, locomotive power, train data and slot allocation. Timing: immediate to short term; Pros: reduces delays; Cons: needs reliable data sharing between railway undertaking, rail infrastructure managers and terminal operators.

  • Corridor and border coordination

    Align infrastructure and operational rules with infrastructure managers, neighbouring countries and regions. Timing: immediate to long term; Pros: enables end-to-end use; Cons: many dependencies.

Impact

Impact level per aspect
ImpactLevelRemark
GHG emissionsMedium impact
Fewer train movements can reduce emissions per tonne.
Port efficiencyLarge impact
More freight can be moved per train path.
Hinterland connectivityLarge impact
Improves the capacity and competitiveness of rail links.
International cooperationLarge impact
End-to-end operation requires corridor alignment.
Spatial impactNegative impact
Longer tracks and yards require additional space.

Port characteristics

Ports that should prioritise 740-metre trains are ports with high rail volumes, strong corridor connections and demand from railway undertakings. Container, bulk and industrial ports can benefit because cargo flows are often concentrated. Ports with available rail space and terminals that can load a full train are better prepared for the lengthening of trains. Large ports may focus on removing bottlenecks across several yards and terminals. The strongest candidates are ports where infrastructure managers, terminal operators, carriers and shippers can develop an end-to-end service together.

Barriers and enablers

Enablers

  • DirectionalityEnabler

    EU modal-shift and rail-freight policy create clear momentum.

  • TechnologyEnabler

    Required rail, signalling and planning solutions are mature.

  • Standards & regulationEnabler

    The revised TEN-T framework supports 740-metre freight trains across the network.

Barriers

  • EconomicBarrier

    Upgrades require capital, while benefits depend on enough regular demand.

  • KnowledgeBarrier

    Technical requirements are known, but each corridor needs a detailed capacity study.

  • InfrastructureBarrier

    Short sidings, yards and terminals remain the main bottleneck. As well as neighbouring places where short sliding’s are still in play.

How to implement?

  1. Step 1

    Identify routes, cargo volumes and operators that can use longer trains

  2. Step 2

    Coordinate the port, infrastructure managers, terminals, carriers and shippers

  3. Step 3

    Check tracks, yards, terminals, signalling and corridor bottlenecks

  4. Step 4

    Adapt priority locations and test one end-to-end 740-metre service

  5. Step 5

    Expand proven services to more terminals, routes and train paths

  6. Step 6

    Embed 740-metre trains in regular port and corridor operations

Timeline

The arrow below represents the expected development of the TRL of 740m train length.
* Technical Readiness Level

What should a port do in the next 3 years?

A port should map potential 740-metre flows and identify the weakest links from terminal to corridor. It should define priorities with the infrastructure manager, terminals and railway undertakings. Quick operational measures should be separated from major changes, like construction works. The port could prepare one end-to-end pilot and include longer tracks in all planned rail renewals. Progress should be monitored at corridor level, not only inside the port. The revised TEN-T Regulation requires relevant rail infrastructure and multimodal terminals serving TEN-T ports to accommodate 740-metre freight trains within the applicable network deadlines.

Investment overview

CAPEX: Investments may include track extensions, longer sidings, switches, signalling, electrification and terminal equipment. Land acquisition or yard reconstruction can strongly increase costs. Combining upgrades with planned renewal can reduce additional expenditure. OPEX: Operational costs include infrastructure maintenance, capacity planning, traffic management, shunting and coordination. Longer trains may reduce operating costs per tonne, but this depends on train occupancy and reliable paths.

Stakeholder overview

Below is an overview of the required involved stakeholders. Port authorities coordinate the port-wide strategy and land use. Infrastructure managers plan tracks, signalling and train paths. Terminal operators adapt loading and yard processes. Railway undertakings provide locomotives, wagons and operational experience. Shippers and logistics providers create stable demand. National authorities and EU corridor coordinators support funding, standards and cross-border alignment.
Blue stakeholders are essential, white stakeholders are enabling

Knowledge base