Deliverables
This deliverable is a report that describes the state of the art of the IoT technologies, collects the user requirements for smart PI containers and selects suitable IoT architectures, networks and components for their realisation (performed in WP2). Standardised solutions will be preferred instead of proprietary approaches, towards the definition of a scalable, interoperable plug-and-play and easy-to-use IoT solution framework tailored for the PI.
Revised verion of D1.11. A report defining the PI protocol stack to be used at PI nodes and endpoints, assessing the potential of existing digital networking technologies to be transferred/applied in the PI paradigm. (final version)
Revised verion of D1.7. This deliverable setups and specifies, with the help of all concerned stakeholders, the parameters of the Generic PI Case Study linking together the 4 LLs of ICONET under a common PI network umbrella. Produces the PI Hubs Plan for this case study (version 2).
A report defining the PI protocol stack to be used at PI nodes and endpoints, assessing the potential of existing digital networking technologies to be transferred/applied in the PI paradigm (version 1).
This deliverable setups and specifies, with the help of all concerned stakeholders, the parameters of the Generic PI Case Study linking together the 4 LLs of ICONET under a common PI network umbrella. Produces the PI Hubs Plan for this case study. (version 1)
Revised verion of D2.1. This deliverable provides the final reference architecture report for the design and development of PI network functions and services. (final version)
Communication activities log. Project website updates.
This deliverable will provide a comprehensive overview of current and emerging standards for physical (mainly by inventorying the ongoing and future activities in the standardisation of the physical assets – the intermodal loading units), digital (with an assessment of the current (EU project) activities related to PI models and standards, and user (catalogue of solutions aiming at removing current bottlenecks in logistics and transport operations) interconnectivity in the PI.
Communication and dissemination plan specifying the exact communication mix (target groups, channels and tools). A project website will be up and running from M1 onwards.
D1.2 investigates and reports business and governance models that can support the PI concept realisation.
Communication activities log. Project website updates.
Revised verion of D1.8. This deliverable setups and specifies, with the help of all concerned stakeholders, the parameters of the Generic PI Case Study linking together the 4 LLs of ICONET under a common PI network umbrella. Produces the PI Hubs Plan for this case study (final version).
Revised verion of D1.10. A report defining the PI protocol stack to be used at PI nodes and endpoints, assessing the potential of existing digital networking technologies to be transferred/applied in the PI paradigm (version 2).
Communication and dissemination activities log, final project website, dissemination material, evaluation report.
This deliverable provides a reference architecture report for the design and development of PI network functions and services. (version 1)
Roadmap for the enabling PI-based advances in the T&L sector in Europe, based on the lessons learned from the LLs of WP3.
Revised verion of D2.17. Digital and physical PI network simulation models developed to assess different scenarios (on the basis of the PI components identified for PI networks validation). KPIs (economic, operational, environmental) will be calculated and extracted for each considered scenario. (Final version)
This deliverable provides an intermediate platform version reflecting the iterative development stages of the PoC. The expected output of this deliverable is a report capturing the updated iterative developments of PoC environment based on the six months from initial implementation to present time. The report will capture, rationalise and explain the current PoC technical configurations and architectural concepts as they stand as this point in the project.
This deliverable provides the first version of the PoC platform and aims to contain initial componentry, such as analytical algorithms, IoT mechanisms, network simulation drivers, all deployed on an IBM cloud platform. Scope shall primarily focus on interconnectivity relating to a single node. The expected output of this deliverable is the implementation of the initial Cloud based PoC PI Control and Management Platform. The initial version of this implementation will have been based on insights and technical requirements gathered over the preceding months of the deployment.
Revised verion of D2.6. Specifies the necessary IoT mechanisms for transforming PI Containers into Smart PI Containers. Provides a reference implementation (designed as a cloud service) for tracking and reporting of PI Containers as they flow within the PI network, and of PI Nodes’ performance history. This deliverable is a demonstrator realised following the guidelines defined in D1.6. The demonstrator implements the IoT infrastructure for transforming PI Containers into Smart PI Containers, thus capable to deploy services for tracking and reporting of PI Containers as they flow within the PI network, and of PI Nodes’ performance history.
Revised verion of D2.3. This deliverable provides a reference design and implementation for core networking, routing, shipping and encapsulation layer protocols and services. This deliverable comprises a set of protocols organised as a stack, concerning the different levels of PI planning and operations. Each layer of the protocol stack will be realised as executable modules with well-defined interfaces that can be plugged in to the ICONET PoC Platform. (version 2).
Revised verion of D2.9. This deliverable specifies the blockchain mechanism and the integration of smart contracts within the PI network operation. More specifically, this deliverable anticipates the potential, use and strategic value of Blockchain in support of situational (and real-time) smart contracts in the context of optimised PI routing and optimisation of “packets” wherein new third party agreements need to be quickly instantiated, initiated, communicated and agreed/approved, so as to facilitate new agreements that will transpire when packets and cargoes traverse new relationships, new actors, new hubs and require new contractual agreements with associated SLAs. (version 2).
Graph models and machine-learning based techniques and analytics that enhance the cognitive capability of PI Nodes for optimising the organisation of PI containers. The outcome of Task2.5 will be captured in this deliverable which will consist of a software component and a report. (i) A web service. (ii) a report. The web service will be aimed for getting insights about optimised delivery routing from the developed machine learning algorithms. It will also include the functionality of representing PI nodes as a graph and the report will cover the design specification of the web service and its functionality. (version 1).
This deliverable provides a reference design and implementation for core networking, routing, shipping and encapsulation layer protocols and services. This deliverable comprises a set of protocols organised as a stack, concerning the different levels of PI planning and operations. Each layer of the protocol stack will be realised as executable modules with well-defined interfaces that can be plugged in to the ICONET PoC Platform (version 1).
Revised verion of D2.15. Digital and physical PI network simulation models developed to assess different scenarios (on the basis of the PI components identified for PI networks validation). KPIs (economic, operational, environmental) will be calculated and extracted for each considered scenario.
Revised verion of D2.13. Graph models and machine-learning based techniques and analytics that enhance the cognitive capability of PI Nodes for optimising the organisation of PI containers. The outcome of Task2.5 will be captured in the deliverable which will consist of a software component and a report. (i) A web service. (ii) a report. The web service will be aimed for getting insights about optimised delivery routing from the developed machine learning algorithms. It will also include the functionality of representing PI nodes as a graph and the report will cover the design specification of the web service and its functionality.
This deliverable specifies the blockchain mechanism and the integration of smart contracts within the PI network operation. More specifically, this deliverable anticipates the potential, use and strategic value of Blockchain in support of situational (and real-time) smart contracts in the context of optimised PI routing and optimisation of “packets” wherein new third party agreements need to be quickly instantiated, initiated, communicated and agreed/approved, so as to facilitate new agreements that will transpire when packets and cargoes traverse new relationships, new actors, new hubs and require new contractual agreements with associated SLAs. (version 1).
D2.21 provides the final PoC version that includes all network functions and services pertaining to PI node and inter-node communications northbound to a PI network management framework. The expected output of this deliverable is an ultimate final report that captures the state of the art of the PI Control and Management Platform implementation at the end of the project, which in turn will contribute to the enhancement of an overall PI reference architecture and blueprint.
Revised verion of D2.4. This deliverable provides a reference design and implementation for core networking, routing, shipping and encapsulation layer protocols and services. This deliverable comprises a set of protocols organised as a stack, concerning the different levels of PI planning and operations. Each layer of the protocol stack will be realised as executable modules with well-defined interfaces that can be plugged in to the ICONET PoC Platform. (final version).
Revised verion of D2.11. Graph models and machine-learning based techniques and analytics that enhance the cognitive capability of PI Nodes for optimising the organisation of PI containers. The outcome of Task2.5 will be captured in the deliverable which will consist of a software component and a report. (i) A web service. (ii) a report. The web service will be aimed for getting insights about optimised delivery routing from the developed machine learning algorithms. It will also include the functionality of representing PI nodes as a graph and the report will cover the design specification of the web service and its functionality.
Revised verion of D2.16. Digital and physical PI network simulation models developed to assess different scenarios (on the basis of the PI components identified for PI networks validation). KPIs (economic, operational, environmental) will be calculated and extracted for each considered scenario.
Revised verion of D2.7. Specifies the necessary IoT mechanisms for transforming PI Containers into Smart PI Containers. Provides a reference implementation (designed as a cloud service) for tracking and reporting of PI Containers as they flow within the PI network, and of PI Nodes’ performance history. This deliverable is a demonstrator realised following the guidelines defined in D1.6. The demonstrator implements the IoT infrastructure for transforming PI Containers into Smart PI Containers, thus capable to deploy services for tracking and reporting of PI Containers as they flow within the PI network, and of PI Nodes’ performance history.
Digital and physical PI network simulation models developed to assess different scenarios (on the basis of the PI components identified for PI networks validation). KPIs (economic, operational, environmental) will be calculated and extracted for each considered scenario.
Revised verion of D2.10. This deliverable specifies the blockchain mechanism and the integration of smart contracts within the PI network operation. More specifically, this deliverable anticipates the potential, use and strategic value of Blockchain in support of situational (and real-time) smart contracts in the context of optimised PI routing and optimisation of “packets” wherein new third party agreements need to be quickly instantiated, initiated, communicated and agreed/approved, so as to facilitate new agreements that will transpire when packets and cargoes traverse new relationships, new actors, new hubs and require new contractual agreements with associated SLAs. (final version).
This deliverable specifies the necessary IoT mechanisms for transforming PI Containers into Smart PI Containers. Provides a reference implementation (designed as a cloud service) for tracking and reporting of PI Containers as they flow within the PI network, and of PI Nodes’ performance history. This deliverable is a demonstrator realised following the guidelines defined in D1.6. The demonstrator implements the IoT infrastructure for transforming PI Containers into Smart PI Containers, thus capable to deploy services for tracking and reporting of PI Containers as they flow within the PI network, and of PI Nodes’ performance history.
Results of the transferability potential, and specification of the e-training programme on using the ICONET results.
Updated version of D4.8. Results of the transferability potential, and specification of the e-training programme on using the ICONET results. (Final version)
As LLs are described in confidential deliverables, ICONET will use a combination of synthetic/simulated and anonymised real data of the LLs to produce/showcase simulations of the most successful LLs use cases (to be defined at M26). These datasets will be made available to the research community and the industry.
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Publications
Author(s): Ben Waller, Stephen Rinsler
Published in: Focus, Issue Monthly, 2021
Author(s): Ben Waller, Stephen Rinsler
Published in: CILT International Strategic Topics, 2021
Author(s): Bill Karakostas
Published in: Procedia Computer Science, Issue 151, 2019, Page(s) 17-22, ISSN 1877-0509
DOI: 10.1016/j.procs.2019.04.006
Author(s): Francesco Marino(2) and Ilias Seitanidis(3) and Phuong Viet Dao(3) and Stefano Bocchino(3) and Piero Castoldi(1,2) and Claudio Salvadori(3)
1. Consorzio Nazionale Interuniversitario per le Telecomunicazioni, Pisa, Italy
2. Scuola Superiore Sant’Anna, Pisa, Italy
3. New Generation Sensors, Pisa, Italy
Corresponding author: fr.marino@santannapisa.it
Published in: IPIC 2019 Conference Proceedings, Issue Yearly, 2019
Author(s): Bill Karakostas
Published in: The 9th International Workshop on Agent-based Mobility, Traffic and Transportation Models, Methodologies and Applications (ABMTRANS 2020), 2020