- Original Paper
- Open Access
How to make modal shift from road to rail possible in the European transport market, as aspired to in the EU Transport White Paper 2011
© The Author(s) 2016
- Received: 20 November 2015
- Accepted: 17 May 2016
- Published: 7 June 2016
The total demand for freight transport in Europe has increased significantly in recent decades, but most of it has been handled by road transport. To fulfil the modal shift targets set in the EU White Paper 2011, it will be necessary to double rail’s market share from today’s 18 %, by 2050. Translating this into reality means rail will have to handle 3 to 4 times the cargo volume it does today. With this in mind, the paper develops a vision of an efficient rail freight system in 2050.
How can rail offer the quality of service that will attract customers and fulfil the targets?
How can rail offer its customers a price that is competitive with road?
How can rail offer the capacity to meet the increased demand from modal shift?
The authors find that the service quality can be improved by better planning, application of appropriate ICT-systems and adoption of an integrated supply chain approach. A more customer-orientated service can also be achieved by further deregulation of rail. There is also an urgent need for a faster implementation of Rail Freight Corridors (RFC). As well as liner trains, future rail freight services should be offering end-point trains, with semi/ fully automated loading/unloading equipment in hub-terminals, as well as terminals at sidings to improve the availability of intermodal operation.
To offer a competitive price and reliable service, a reduction in operating costs will be vital by implementing a number of measures, including operation of heavier and longer trains, wider loading gauge, higher average speed, and better utilisation of wagon space and all assets. This will bring increased capacity, as well as better timetable planning, signalling systems and infrastructure improvements.
- Rail freight
- Customer requirements
- Modal shift
- White paper 2011
Directive 2001/12/EU that is designed to clarify the formal relationship between the state, the infrastructure manager and the railway undertakings (operators);
Directive 2001/13/EU that sets out the conditions for freight operators to be granted a licence to operate services on the European rail network; and
Directive 2001/14/EU that introduces a defined policy for capacity allocation and infrastructure charging .
Reform efforts were continued in the Second, Third and Fourth Railway Packages, where the Directives were subsequently revised to make the European rail freight (and passenger) sector fit to meet the needs of operators and customers. Ultimately, the reform measures were aimed at creating a market environment where rail freight operators can gain access, compete and gain due market share, and contribute to a sustainable society [10, 11]. Towards this aim, on 28 March 2011 the EC published its Transport White Paper “Roadmap to a Single European Transport Area – Towards a competitive and resource efficient transport system”.
30 % of road freight over 300 km should shift to other modes, such as rail or waterborne transport, by 2030, and more than 50 % by 2050, facilitated by efficient, green freight corridors.
By 2050, a European high‐speed rail network should be completed; the length of the existing high‐speed rail network should triple by 2030 and maintain a dense railway network in all Member States.
By 2050, the majority of medium‐distance passenger transport should be by rail .
How can rail offer the quality of service that will attract customers and fulfil the targets?
How can rail offer its customers a price that is competitive with road?
How can rail offer the capacity to meet the increased demand from modal shift?
The current research attempts to determine, from a technical and operational point of view, how to develop the rail freight system to fulfil the targets, from today and beyond the state-of-the-art.
Elaborate the state-of-the-art of the European rail freight system;
Briefly describe some scenarios for rail freight demand up to 2050, using extracts from forecasts and taking into account the EU white paper;
Analyse existing and expected future customer requirements for different goods types;
Identify measures that will make rail more cost effective, but not to make socio-economic calculations;
Analyse progress beyond the state-of-the-art for vehicles, intermodal systems and operation principles and identify remaining gaps towards 2030/2050;
Provide an insight into an efficient rail freight system that can fulfil EU targets, by 2050.
The current research applies a qualitative methodology to elaborate the state-of-the-art of the European rail freight system, to identify the future needs to 2050, and to suggest some steps to meet those needs. Literature surveys are conducted, reviewing the current body of knowledge in the field, such as relevant scientific conference and journal papers, publicly available reports from both EC and national Government funded projects, and working documents that have already been published, are in the process of publication, or whose results are available to the researchers due to their involvement in other research.
Currently used equipment, methods and common standard, with required future incremental and total system changes
50 % track-friendly
Radio controlled EOT
Automatic couplers on some trains
Automatic couplers on all trains
Max Axle load
Floor height lowest
Some in wagons
All radio controlled
Tractive effort kN
Train lengths in RFC
2 200 tonnes
4 400 tonnes
10 000 tonnes
Rail Freight Corridors
ERTMS L2 in RFC
ERTMS L3 in RFC
Standard rail weight
UIC 60 kg/m
Speed standard freight
Speed fast freight
Marshalling - feeder
Marshalling - feeder
Some liner trains
Liner trains - duo-loco
All remote controlled
Liner trains with stops at siding
Liner trains fully automated loading
High Speed Freight
National post trains
International post and parcel trains
International post and parcel train network
IT /monitoring systems
Full control of all trains and consignments
In the freight transport system, technical development has been generally incremental; for example, the performance of locomotives has improved gradually from steam. The tractive power of the locomotive has often determined the change needed for improved operation of trains and infrastructure and here a ‘step’ or ‘complete’ change in the system can be argued for in the long term (e.g. 2050). For example, we can see that the brake control should be changed from ‘pneumatic’ to ‘fully electric’, rather than the intermediate change to ‘radio controlled end-of-train (EOT)’. From the two group discussions, there was consensus that there is no ‘one correct answer to every question’, because market development trends will evolve over time and crises (e.g. the ongoing economic recession since 2008) will interrupt forecasted or expected development.
An important aspect of this research was the necessity to restructure the information collected from different sources to make it compatible, comparable and consistent, Europe-wide. Such necessity arises when there is a problem of selecting the most adequate and appropriate information collected from varying sources, and in some cases contrasting findings, as well as information about ongoing developments on which publications are not yet publicly available. The current research recognises that, with a long term perspective such as 2050, it is necessary to not only investigate what is on the market today, but also what may come onto the market from a world‐wide, best practice point of view - not only for and from the railway sector, but also for and from other modes and the industry as a whole.
2.1 Freight transport volume 1970–2011
The total transport demand for the EU15 (consisting of so-called ‘old’ members, before 1995) has been analysed from 1970 to 2011; for the EU12 (‘new’ members, since 1995) and EU27 (consisting of member countries, 2013) the date range is 1995–2011. Total demand and rail market share have been calculated using the sum of rail, road and inland waterways.
Between 1970 and 2007 total freight transport volume, in billion tonne-kilometres in the EU15, increased by an average of 2.5 % per year, then decreased until 2011. Most of the increase volume has been transported by road, resulting in its significantly increased market share, from 52 % in 1970 to 78 % in 2007. Rail freight volume has been either constant or decreasing over the same period; overall rail market share decreased from 36 % in 1970 to 15 % in 1995, though it then stabilised and has slightly increased in recent years.
2.2 Transport modes and their market shares
Road transport is available in all countries and totally dominates short‐haul (in particular <100 km). A trucking service is also an essential component of a rail and waterways door-to-door intermodal service, for pickup at origin and delivery at destination. The trucking industry carries a significant volume over very long distances and offers a competitive and reliable service.
Analysis of the ‘EU Transports in figures - statistical pocketbook 2014’ , shows that rail is available in most EU countries, but that its market share varies widely. The highest transport volumes are in Germany and Poland, but rail’s market share is highest in Switzerland and Austria. Inland waterways - rivers and canals - are available and used in countries like Germany, France and the Netherlands, mostly for bulk transports, as well as feeder transport of containers to and from big international ports, like Rotterdam and Antwerp.
2.3 Rail freight volume
Rail freight operational models comprise different products: trainload, single wagon load and intermodal. These models have approximately 50 %, 25 % and 25 % respectively of the tonne‐kilometres in Europe. ‘Trainload’ refers to dedicated trains operating for a specific company, or cargo type, e.g. ore, coal and timber trains. ‘Wagonload’ refers to conventional SWL (Single Wagon Load) from customers, transported by a feeder rail freight operator to a nearest or suitable marshalling yard or terminal for consolidation, from where they are transported by long distance block or shuttle trains to the destination terminal or marshalling yard, and then on to destination by feeder train transport. ‘Intermodal traffic’ refers to cargo in containers, swap‐bodies and trailers used for feeder transport, that are loaded on trains at terminals for long‐distance transportation. SWL volume has gradually decreased in favour of trainload and intermodal [7, 18, 39]. In contrast, the freight volume carried by intermodal train has increased, mainly due to the higher flow of containers through maritime ports.
2.4 Rail market share in different countries
The overall decrease in rail’s market share has been heavily influenced by losses in the new member states (EU12), where it decreased rapidly and deeply from 51 to 23 % (in tonne-kilometres) between 1995 and 2009, following the abolition of the railways monopoly. Contrasting trends can be observed in the EU15, where rail’s market share has remained fairly stable, at about 15 %, since 1995. In recent years, rail’s share of the market has increased slightly, in both EU12 and EU15.
By contrast, in some EU15 countries, rail’s share has decreased during the same period. For example, in France it has decreased from a relatively high level of more than 20 %, to 15 %. From a low level of approximately 10 %, rail share has decreased even further, to less than 5 %, in Spain, Luxembourg and Ireland - countries at the bottom end of the Rail Liberalisation Index 2011 - suggesting that the decline can be attributed at least in part to the lack of railway reform. In recent years, rail’s market share in these countries has either stabilised or slightly increased.
In the EU12 in 1995, rail held a very high share of the freight transport market in several countries. For example, in Latvia, Lithuania and Estonia, rail had 70‐95 %, which had decreased to 55‐65 % by 2011. A similar fall has been seen in Poland, Slovakia and the Czech Republic, where 40‐50 % has decreased to 20‐30 %, by 2011. Interestingly, in all these countries, rail market share seems to have fluctuated or stabilised, over the last 5 years. In Bulgaria, Slovenia, Croatia and Hungary, rail’s market share of between 35 and 60 % has declined to 20 % or less, while in Turkey it has remained stable, at a low level of approximately 5 %.
3.1 Total demand for freight transport
A number of forecasts have been conducted for freight transport in Europe, with different scope and objectives and with different perspectives (e.g. Primes, TREMOVE, iTREN, TRANS‐visions, TOSCA, D-RAIL, and SPECTRUM). The findings of more recent forecasts are analysed and presented here, e.g. [9, 17, 20, 22, 32, 35]. Most of these forecasts include road, rail and inland waterway, but some also include maritime transport. Despite the ongoing European economic recession since 2008, the forecasts are made assuming economic growth in the long term. Another important assumption used in these forecasts is the EC Transport White Paper target for modal shift, with the recognition of current recession in the data analysis. This research has analysed these forecasting studies, using the TRANS‐TOOLS modelling tool, with a long‐term time horizon (e.g. up to 2030 and/or 2050).
3.2 Future freight transport demand per mode
Most forecasts show small differences and changes in modal market shares, in their business‐as‐usual scenarios. The findings of the three forecasts are elaborated below.
The D‐RAIL study  forecasted future rail freight demand assuming three different scenarios: 1) Reference scenario - with no change to the infrastructure, policies and other trends of the current rail system; 2) White Paper High scenario - modal shift of 50 % by 2050; and 3) White Paper Low scenario - modal shift of 30 % by 2030). The study shows, in the Reference and Low scenarios, a total growth of 65 % and 99 % respectively, between 2010 and 2050. The growth for the High scenario is more than double (216 %) the Reference scenario. The countries that show the highest relative growth are in the EU15, with Germany and Italy maintaining the highest positions. In the EU12 group, the higher flows originate from Poland, the Czech Republic and Romania, representing 60 % of the total EU12 demand .
The transport demand analysis in the SPECTRUM study included LDHV (Low Density High Value) goods, which include agriculture, foodstuffs, metal, chemicals and other products. The majority of these goods are transported by truck and the study argues that it from road that the shift to rail will have to take place [22, 32]. The SPECTRUM study analysed the potential market for LDHV goods, currently transported by road over distances of 200+ km, which has the potential to move to rail transport. It further noted the most important countries/regions, and a pattern of specific industries, for example a concentration of metal products in Italy’s automotive industry and of agricultural products in France, the EU’s leading agricultural power (with around one third of its agricultural land). LDHV goods transported by road totalled 3.9 million tonnes in 2009 and are forecasted to grow by 53 % by 2030, reaching a volume of 5.9 million tonnes. The transport by road of metal products and other types of products is expected to have the highest increase. The total volume of rail freight transport in EU27 and Switzerland is estimated to increase from 1.1 billion tonnes in 2009, to 1.5 billion tonnes of LDHV cargo in 2030. The study expected that, with the structural changes in the economy and demography, the transport of bulk commodities would decrease in future.
With base year 2010, the TOSCA study  - without taking into account the EU Transport White Paper 2011 targets - forecasts that the total freight transport demand, in tonne‐km, will increase by 50 % by 2050. The market shares will be rather stable, with 81 % for road in 2010 and 82 % in 2050 and 19 % for rail in 2010 and 18 % in 2050. Thus the forecasted freight volume by road will grow slightly faster than rail; this shift in favour of road - the reverse of EC Transport White Paper policy - is probably a consequence of different economic development for various sectors and commodities and the actual mix for different modes.
4.1 Customer requirements versus current rail freight service structure
The freight transport market has changed, from large quantities of bulk being transported by block trains, to smaller, more frequent shipments with a higher value and a faster and more reliable delivery requirement. The development of the single European market, regularly extended to new member states joining the EU, has boosted another type of customer demand for pan-European freight traffic.
The European rail freight industry, developed on a domestic focus with powerful incumbent railway undertakings, has not yet developed the necessary collaborative or integrated approach needed for the kind of total pan-European transport chain widely practiced by maritime shipping lines, for example. There are various reasons for this, including the fact that the multiple actors in multimodal transport chains have, at times, opposing interests. This, coupled with the high level of entry barriers faced by private new entrants, has failed to generate the development of industrialised, pan‐European services to respond to market needs. Moreover, no modern studies of this market have been conducted to evaluate its evolution, anticipate the needed revolution, or suggest new business models suitable to face the challenges due to, among other things, the protectionist attitude of the incumbents towards their market share. The bundling of the various categories of traffic (bulk, containers), the creation of efficient nodes to de-bottleneck by optimising the use of existing infrastructure, the development of fully interoperable Trans‐European Rail Freight Corridors with a powerful governance platform, and coordination with national infrastructure managers, are all progressing too slowly. Overcoming the patchwork of national safety rules, through powerful action by the European Railway Agency (ERA), is progressively arriving at an urgent need to increase the pace. All of these elements have hindered the introduction of pan-European rail services.
4.2 The nodes-and- links concept for door-to-door rail freight service
The maritime shipping industry has, for many years, applied the ‘hub-and-spoke’ or ‘nodes-and-links’ concept, integrating multiple actors in one transport chain to achieve cost- and time-effective services. The concept is still at an early stage of development and application in the rail freight sector. The nodes-and-links concept encompasses various types of terminals, connecting each other as well as cargo origins and destinations, such as hubs, marshalling yards, freight villages, sea ports, dry ports, intermodal, conventional and multimodal terminals, and industrial and logistics zones [16, 38]. The nodes have to be close to a production and/or large consumption area and at corridor crossing points . They have to: transform the traditional transit function over normal working hours into value‐added, round the clock transit, by quick transfer between modes and/or train to train; achieve a high fill coefficient of trains or last mile transport; have a high degree of reliability for the end customer; and the ability to find the best connection to reach the end terminal through integration into the whole network [1, 15]. These represent the key elements that contribute to managing transport networks efficiently.
4.3 Rail freight customer requirements
Reliability of service: Rail transit time (origin to destination, not just terminal to terminal) has to be competitive with road. However, consistently and unfailingly reliable transport (i.e. arriving at the agreed time, in full) is for many shippers even more important than the transit time itself.
Costs of door‐to‐door delivery: Rail transport is often, but not always, more expensive than road transport, especially for relatively short distances and for door-to-door service. Low operational costs can be achieved by combining rail volumes on a corridor and by intensive use of the rolling stock and traction assets and thus can offer competitive (to road) freight pricing.
Service availability: Service availability at both origin and destination is very important. Although rail is not able to compete with road transport in terms of flexibility, which is an important key to ‘service availability’, the frequency of a service in a day or week can complement this aspect.
Safety and security: Reducing the chance of losses, theft and damage. This is especially important for the transport of high value goods. In general, rail freight transport has a competitive advantage over road transport with regard to safety (less chance of shifting in wagons) and security (less chance of theft).
Environmentally friendly transport service: Many customers increasingly want environmentally friendly transport service but are unwilling to pay more for it. Considering this as an increasing trend, rail has an advantage over other modes to offer sustainable service.
Competitive cost for a reliable service (that can be measured by on-time arrival and departure of the service just‐in‐time);
Easy access (measured by time taken by trucks, rail and waterways transport in terminals to pick up and deliver);
Accurate information provision (for example, frequency of service, estimated time of arrival ETA versus actual arrival time);
The adaptability of the service, at short notice, to the variations in volume that can occur quite suddenly (measured by time taken).
5.1 System capacity, utilisation and improvement
Railway rolling stock comprises all vehicles including locomotives, coaches, and wagons that move on a railway system. From a freight train operator’s point of view, we can consider two aspects: train capacity and wagon capacity. The train capacity is dependent, among other things, on the length of the train, as well as loading capacity (i.e. how much cargo can be carried). The capacity of a train can be broken down into two parts: volume (cubic) and mass (tonnage) loading capacity . The cubic and tonnage capacity per train, together with higher average speed (may mean lower requirement of rolling stock for a certain amount of transport needs) drive both efficiency and higher capacity utilisation, since high fixed capital or ‘personnel’ costs per train contribute significantly to reducing the operational cost of a service. For the railway system as a whole, the loading capacity per train, multiplied by train frequency, determines the overall system transportation capacity . Moreover, the loading capacity per train can be linked to axle load. The loading capacity per wagon is dependent on the number of axles, axle load, wagon tare mass, as well as the volume (cubic) and density (tonnage) of the cargo. The loading capacity per train can be limited by its useful volume, for example in the case of low‐density voluminous commodities, or by its load (mass) limit, for example in the case of high‐density heavy commodities.
The utilisation of capacity is as important as the system capacity itself. For example, to reduce the operational cost and to offer a competitive price to customers, the utilisation of wagons and trains must be improved, both by advance and proper planning and by improving the technical aspects. One example of technically improved utilisation is the VEL wagon, which is a 26 m long wagon with two bogies that can load two 40 feet containers or three swap-bodies (or combinations of unit loads including High cubes) on an 80 ft loading area. It implies better loading factors of trains, 10 % more TEU per length on fewer axles, and thus lower energy consumption, less maintenance and lower cost per transported unit (VEL wagon 2012). Other measures are short‐coupled wagons with draw‐bars, or automatic couplers without buffers.
5.2 Axle load and freight train speed
The axle load of a wagon is the total wagon weight (empty wagon weight + load on the wagon) resting on the axle. Higher axle load means fewer requirements of wagons, which is good from the operator and customer point of view. Axle load is therefore an important design factor in the engineering of railways, designed to tolerate a maximum weight‐per‐axle (axle load). If it exceeds the maximum rated axle load, it will cause more damage to the track so, for infrastructure managers, a lower or safer axle load limit is desirable. In this regard  remind us that: ‘the negative impacts of increased axle loads occur primarily in the areas of track and bridge maintenance and renewal, and freight car maintenance’.
The SUSTRAIL study (2014) puts a high priority on the improvement of the rail system as a whole and emphasises an increase in axle load limits (to 22.5 t / 25 t), depending on different operational scenarios . Some infrastructures, usually ore lines, are designed and maintained for even higher axle loads than those suggested above. For example, heavy haul transport with axle loads up to 30 t is well developed in Sweden, although for specific circumstances that may not be copied to other railways in general. Advances in rail vehicle bogie and general rail vehicle dynamics, through better suspension characteristics, are expected to reduce direct damage to track and allow increasingly high axle loads. An increase of axle load on existing lines can be costly but, if this is done systematically at renewal of the lines, the marginal cost will often be small.
Studies such as [9, 27] report that railways in the USA have significantly higher axle loads than in Europe. Standard “free interchange” axle loading in the USA (and in North America in general) is 33 tonnes (36 tonnes) on 914 mm (36”) diameter wheels.  suggest that to improve productivity ‘there has been a constant pressure in the marketplace to increase train weight and axle loads in order to reduce operating costs and increase capacity’ in the USA. They report that: ‘The capacity of the average freight car has risen by about 80 % since 1960 and reached 92 tonnes’. This higher axle load, combined with longer trains, results in a significantly higher level of rail loading capacity (12,000+ tonnes per train). The example portrays that capacity on the North American railways has generally developed to meet a need. The question can be asked: how relevant this is for European rail freight transport? Building such high capacity is costly and, given the trend in freight movement, is only necessary in Europe on a few, specialised routes e.g. the Iron Ore Line, known as ‘Malmbanan’, which is capable of transporting 32.5 tonnes axle-load between Narvik, in Norway and Kiruna, in Sweden.
Currently the maximum freight train speed is 100 km/h but, in Europe, freight trains are generally operated at a much lower average speed than inter-urban passenger trains. Many modern wagons and locomotives are designed for 120 km/h, but this speed is achieved only for some special trains. A higher speed will mean higher energy consumption but at the same time shorter transport time will improve the asset utilisation per unit of time. From a system perspective, more freight trains can be operated in between fast passenger trains, in the day time. The speed of normal freight trains was increased from 80 to 100 km/h, on many European networks, about twenty years ago. Considering this, the TEN-T regulations have set a target of achieving freight train speeds of 100 km/h on all European railways by 2030 . The Europe wide incremental increase of speed can be conducted most economically if and when appropriate infrastructure and rolling stock are adopted.
5.3 Acceleration and braking
The normal braking system of freight trains is based on depression of a single brake pipe and its slow propagation towards the end of the train, successively putting all distributors into service when they detect the pressure drop. For that reason, the last wagons are still busy running while the first wagons are trying to stop, creating longitudinal compression forces that increase the risk of derailment. The time taken to brake a freight train is therefore quite long compared to a passenger train. At the same time as releasing the brakes, it is necessary to refill the brake pipe, until nominal pressure for each wagon to release the brakes is reached. The time to release the brakes is also quite extended. An improved braking system is therefore vital from a freight operator and infrastructure manager point of view, though a more drastic remedy would be to abolish this braking system and change to a high performance system that includes electro‐pneumatic brakes, regenerative brakes and disc brakes [24, 33]. The operation of a higher speed freight train would imply the ability to exploit train paths of passenger train quality, in terms of acceleration, braking and line speed, and minimising the impact on following trains.
5.4 Loading gauge
5.5 Train length and locomotive options for traction
Much of today’s European freight train system has inherited an old standard 3–4 MW electric locomotive that can haul trains of approximately 1500 gross tonnes and a train length of 650–750 metres. However, modern locomotives have a tractive power of 5–6 MW, capable of hauling 2000‐2500 tonne trains of up to 1050 m in length. The length of freight trains on European railways varies significantly from country to country and, on some railways, 850 m long trains are running. Moreover, in 2014 experiments were conducted with 2 × 750 m = 1500 m long trains, with radio‐controlled locomotives in the middle of the train set [31, 36]. However, the TEN-T Regulation suggests a 740 m long train with 22.5 tonnes axle load, on European core networks, by 2030 . To operate longer trains, the extension of tracks at sidings, crossing stations and terminals is needed. This is costly - but often less costly than building more double tracks, or new lines.
Regarding energy supply source, a locomotive can be diesel, electric, or combined. There are significant differences in the energy efficiency - and thus operational cost and emissions - of the rail freight system. Electric locomotives are the best choice from an environmental and economic point of view, although questions remain as to how the electricity is produced, as electricity generated from a coal‐fired power plant will have produced substantial emissions compared to a hydropower plant with very low or no emissions. The energy efficiency of an electric locomotive can be improved by optimising its operational efficiency. The energy supply to the rolling stock can be improved by electrification of existing diesel‐operated railway lines, as well as by a low greenhouse gas (GHG) producing production source. Approximately 55 % of the European rail network is electrified and 85 % of freight traffic is handled by electric traction. Electric locomotives are often used for long distance transport between marshalling yards, but diesel locomotives are used to distribute the wagons to customers, because their tracks are often non-electrified. Duo-locomotives are now available on the market which have both electric and diesel traction. This allows train operators to run a service with one locomotive instead of two, reducing investment and capital costs and making operations more responsive, for example by shunting wagons on non-electrified sidings along the line. In the long term perspective, duo-locomotives can be profitable even if they are a little bit more expensive than ordinary locos.
5.6 Improved transhipment
The efficiency and effectiveness of rail freight services is largely dependent on the efficiency and effectiveness of terminals, marshalling yards along the transport chain, and feeder transports. Transhipment in terminals is traditionally performed vertically, using a variety of equipment, such as Transtainer (gantry crane), Reach Stacker, Straddle carrier, or Fork lift. With this type of equipment, a container is lifted from a train and moved to a stack yard, either for storage, or loading onto a truck, etc. Comparatively speaking, this vertical transhipment is costly, time consuming and incurs a higher risk of loss/damage to cargo. Moreover, 80 % of European trailers cannot be lifted, restricting market share.
A small-scale intermodal freight train system has been implemented in Switzerland. Innovatrain - a liner train with stops at many terminals over short distances - is a push‐pull train capable of operating in either direction . It can either run on the electrical main track, at speeds up to 120 km/h, or drive into a private railway siding by using its diesel power. For horizontal transhipment, the ContainerMover system is used, between the train and the truck. The device is mounted on the truck, which makes transhipment possible at every terminal, or small terminal/ siding. Another system for horizontal transfer of unit loads is the CarConTrain (CCT), consisting of a wagon that travels parallel with the track, equipped with arms for transferring freight horizontally . The system can transfer unit loads fitted with corner castings from 2.5 to 3.6 metres wide and 3 to 12 metres long. Since it can be fully automated, it could be used in unmanned terminals and warehouses. The train can be unloaded regardless of whether the truck is available and can arrive at any time, since no personnel are required. The terminal cost can be reduced and thus the cost of the overall transport chain.
Shuttle freight trains - by their nature direct - generally run between hubs where multiple wagons are consolidated or unbundled for different destination terminals . The shuttle trains generally run with scheduled path allocations. The rail terminals may be linked with services such as marshalling yards, for consolidating SWLs. Thus, an efficient and effective operation of marshalling yards is at the heart of the future SWL and other types of freight service in Europe. Instead of a conventional hub and spoke system, we can consider a system of liner trains - a similar concept to liner shipping - where the trains run on a main route and wagons are picked up and dropped at stations along the way.
Achieving modal shift from road to rail will rely on a mixture of both customer and market related requirements and the necessary associated improvements to the EU’s rail systems. Much of today’s freight rail system is based on an old standard 3–4 MW locomotive, which means trains of 1500 gross tonnes and a length of 650–750 metres. However, modern locomotives have a tractive power of 5–6 MW, capable of hauling 2000–2500 tonne trains, of up to 1000 m in length. In Europe, train lengths up to 850 m are already in operation and experiments have been made with 2 × 750 m = 1500 m long trains. With a higher axle load, the operation of heavier trains can be achieved. Duo-locomotives have been introduced, equipped with both normal electric traction and diesel traction, which can shunt wagons at a marshalling yard, or in an un-electrified siding. Operators thus need only one loco instead of two, also making it possible to introduce liner trains that can stop along the line and change wagons.
Concerning wagons, the question is whether development will be incremental or if it is possible to make a system change (see Table 1). An incremental change means successively higher axle loads, wider gauge, higher payload, better and more silent brakes and some electronic equipment. A system change will include electro-pneumatic brakes, disc brakes (from cast brakes) and full electronic control (from pneumatic) of wagons and load, and automatic central couplers (from screw couplers). Automatic couplers are the most critical component, not only to make shunting and marshalling safer and cheaper, but also because this will make it easier to operate longer trains. However, to introduce automatic couples it must be supported by a thorough cost-benefit analysis.
For an intermodal service, the terminal cost and time are critical. If terminals are located on an electrified side track, where the train can drive straight in and out, liner trains can be used without switching to a diesel engine. This process speeds up by adopting a horizontal transfer technology that can function under overhead contact wires and facilitate faster loading/unloading of containers, resulting in a short stoppage time (aspiring to 20–30 min) in terminals. The terminals can be compact, as there is little or no need for storage tracks. Most trailers currently in use are not designed to be lifted onto a railway wagon, so solutions must be found to roll trailers on and off; this will considerably widen the market opportunity.
More efficient timetable planning: e.g. double track - bundling of trains with the same average speed in the timetable channels and daytime operation of faster freight trains.
Use of trains and vehicles with higher capacity: higher utilisation of existing trains, longer trains, higher and wider gauge, higher axle load and metre load.
Differentiation of track access charges to avoid overloaded links.
Better signalling systems, such as ERTMS, with shorter block lengths.
Adaptation of Rail Freight Corridors for longer and heavier freight trains. Longer and heavier trains will make it possible to roughly double the capacity.
- 6.Investment in high speed rail to increase capacity for freight trains and regional trains on both the conventional network and on dedicated freight railways (see Fig. 9).
A general problem is that investments in rolling stock often are done by operators from a business perspective and investments in infrastructure often are done by the state from a socio-economic perspective. That means that there is a need for co-ordination to optimize the system.
An estimation of the effects of a modal shift to rail transport, by applying the world’s ‘best practice’, shows a reduction in EU land transport GHG emissions of 20–30 %, compared with a ‘business as usual’ scenario. The rail system can thus substantially contribute to the EU target to reduce GHG emissions in the transport sector by 60 %, compared to 1990 levels. To enable such a mode shift there is a need for strong development of the rail system.
The authors contend that service quality can be improved by better planning, the application of appropriate ICT-systems (e.g. ERTMS, web-based tracking and tracing system, incorporating all transport chain partners) and the adoption of an integrated supply chain approach to meet customer requirements. A more customer-orientated service offering can also be achieved by further deregulation of rail. Each of these suggested measures needs further in-depth research.
There are however also problems in implementing new standards in the rail sector, as investments are often costly and the life cycle of infrastructure and rolling stock is very long. There is a need to discuss future standards at an early stage, as we have done here, but also to perform the commercial and socio economic evaluation that is outside the scope of this paper.
By better competition in rail business. This needs further research and development, as aspired to in the Shift2Rail public–private initiative undertaken by the rail industry and the EU.
By appropriate and carefully developed cost-benefit analysis of measures, prior to their implementation.
Particularly important to lowering operational cost and offering a lower freight rate are: the operation of heavier and longer trains; wider loading gauge; higher average speed; and better utilisation of wagon space and all assets. Improved intermodal transhipment will also be vital to improving quality and gaining a more available and punctual customer service.
Future research, to be reported in a subsequent paper, will conduct cost-benefit analysis (that includes socio-economic aspects) and financial analysis (that takes commercial aspects into consideration) by exploring, in-depth, a variety of rail terminal operations to validate proposed new equipment, methods and standards, in terms of technologies and operational measures.
The authors thank the European Commission for part-funding the research under the 7th Framework Programme, within the project “CAPACITY4RAIL: Increasing Capacity 4 Rail networks through enhanced infrastructure and optimised operations.” The authors would also like to thank all consortium partners, in particular WP2.1 partners, and the peers who provided constructive criticism and opinion that have improved the quality and content of the paper. The content and the opinions expressed in this article are the full responsibility of the authors.
Open Access This article is distributed under the terms of the Creative Commons Attribution 4.0 International License (http://creativecommons.org/licenses/by/4.0/), which permits unrestricted use, distribution, and reproduction in any medium, provided you give appropriate credit to the original author(s) and the source, provide a link to the Creative Commons license, and indicate if changes were made.
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