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GIFTS (Global Intermodal Freight Transport System)

The main goal of the GIFTS project was to develop a fully Integrated Operational Platform GIP for managing door-to-door freight and logistics chains in an intermodal environment. The idea was to setup a system providing a full service to transport operations accessible to the small- and medium-sized companies. GIFTS was aimed to provide applications for the operational (e.g., track, trace and monitor the door-to-door transport, aid in transport and fleet management), as well as e-commerce functions and insurance of a door- to-door transport chain (including order matching, e-document transfer, e-payment).

To achieve this goal, a core platform has been developed that supports information sharing, based on service orientation and complex event processing. To the core platform, all objects and services that provide information, such as traffic information, GPS locations of transportation resources, water levels, and queues at the harbour gate, are event sources. Subsequently, information aggregators are developed that use low level events to aggregate information like the estimated arrival time of a truck at the harbour and the expected loading time of the container from the resource onto a ship. Planning services were built on top of these information services, to improve transportation plans by exploiting real-time information about resource positions and infrastructure status and by improving the robustness of transportation plans in handling unexpected events. Also, monitoring services were built, which planners and drivers of transportation companies can use to monitor the status of their own and other resources.

GIFTS has been tested by means of a demonstrator platform, used in three different pilot scenarios.

LOGISTAR (Enhanced data management techniques for real time logistics planning and scheduling)

The main goal of the LOGISTAR project was to support effective planning and optimising of transport operations in the supply chain. This should be realised by taking advantage of vertical and horizontal collaboration among different sectors and companies and by increasingly using real time data gathered from the interconnected environment such as Internet of things (IoT) devices, smartphones, on-board units and open data.

The key element of this approach was the development of a real-time decision and visualization tool of freight transport using advanced algorithms, big data analytics and artificial intelligence to deliver key information and services to the various agents involved in the supply chain. For this purpose, primarily real-time data, both from the systems of the actors involved in the transport and logistics chain and from the “Internet of Things” (IoT), were received, merged and interpreted within the framework of horizontal and vertical cooperation. Different aspects with impact on the transport performance were considered, such as weather conditions, strike situations, capacity utilisation or road conditions and delays.

The LOGISTAR developments have been tested in three uses cases with different stakeholders of the transport and logistics chain, such as 4/5PL (Logistic Service Providers), Infrastructure managers and FMCG (Fast Moving Consumer Goods) manufacturers.

SYNCHRO-NET (Synchro-modal Supply Chain Eco-Net)

The SYNCHRO-NET was designed to demonstrate the integration of the slow steaming concept into synchromodality, guaranteeing cost-effective robust solutions that de-stress the supply chain to reduce emissions and costs for logistics operations while simultaneously increasing reliability and service levels for logistics users. The project was based on the building of demonstrators in order to show the power and the effectiveness of the synchromodal approach proposed by the several tools included in this Eco-Net.

With respect to Logistics Networks, the following outcomes shall be highlighted:

  • Maritime modules that allow assessing ship slow and smart steaming, either at a strategic level, either for real time operations, taking into account interactions with the other transportation modes in the supply chain.
  • SYNCHRO-NET tool for the optimization of the transport chain: the simulator is an applicative software module able to create reliable plans for freight transportation from an origin to one or many destinations, considering different constraints and enabling the final users to monitor different KPIs (Key Performance Indicators), such as distance, time, and emissions, and KRIs (Key Risk Indicators), such as flexibility and reliability.
  • Weather Routing Module: the tool computes the Key Performance Indicators (KPI) for the maritime transport from a harbour of arrival to a destination harbour depending on weather data and operational conditions.
  • Cooperative Speed Pilot: to assess the costs and speed of a maritime route, and then choose the correct way to operate this route, the “real-time speed pilot” computes the optimal speed based on ship speed, ETA, time-window at each waypoint along the route and rates.
  • Synchromodal Logistics Optimisation Toolset: addresses the operational and real-time aspects of logistics planning in synchromodal smart-steaming supply chains. The toolset includes:

o   Real-time multimodal logistics optimisation of container movements from door-to- door, dynamically re-optimising in response to deviations and operational issues;

o   Hinterland logistics planning, addressing multiple modes through major ports and terminals, taking into account reverse logistics, container repositioning, driver hours balancing and resource utilisation;

o   Real-time smart-steaming- aware dock and berth scheduling algorithms for large ports and terminals;

o   Dynamic de-stressing algorithms which balance and smooth activity through main terminals to reduce queues and congestion and increase capacity.

  • SYNCHRO-NET Driver Interaction Layer: a real-time scheduling system designed to cope with the complexities associated with synchromodal logistics planning.

TELLISYS (Intelligent transport system for innovative intermodal freight transport)

TelliSys was the follow-up of the TelliBox project. The main goal was to actively promote the EU’s objective of optimizing the performance of intermodal logistic chains and will provide smooth and cooperative interactions between different modes of transport. More specifically, the scientific aim was to develop an intelligent transport system applicable for road, rail, short sea and inland shipping. The system consists of a modular set of volume-optimised and traceable MegaSwapBoxes (MSB), an adapted trailer and a tractor for the road transport.

The results, that are most relevant for Logistics Networks, are

  • MegaSwapBoxes (MSB): Nine different conceptual designs for the MSB (Intercontinental and Continental) were developed. Some of them varied in the design of the bottom frame, the internal height and possible expansions. Based on the defined requirements three solutions were taken into consideration for further evaluation: The continental MSB, the Automotive MSB and the Intercontinental MSB. The MegaSwapBox designs fix known disadvantages of 45 ft containers or swap bodies like reduced inside measurements, improper outside height and difficult handling. The solutions are incorporated into three main designs, from which two of them were also produced as prototypes: Automotive MSB and Continental MSB.

  • Super low-deck truck: The final design was a 6x2 tractor that fulfils the Euro 6 standard with an extremely low fifth wheel height of 850 mm. It is compatible with the required GCW (gross combination weight) of 44 t for intermodal transport in Europe.

  • Trailer chassis: The TelliSys trailer chassis was designed to carry up to 36 t of payload while having a tare weight of less than 3,900 kg. The chassis has a coupling height of 850 mm with a gooseneck tunnel, which makes it compatible with standard ISO containers. The screwable axle bearings is a pioneer for drawbar chassis designs for the manufacturer. The design allows for more flexibility by using one chassis design for several axle and tyre configurations. A total of three different concepts for the chassis were discussed and evaluated.

Extended test runs of the prototypes proved the technical concept and showed advantages regarding utilisation of loading unit volume, energy consumption, GHG emissions and operative costs.


Last modified: Thursday, 1 February 2024, 5:29 PM