Project Outputs

D1.1. Project Management Plan

This document outlines the governance structure, communication, reporting, and administrative, financial, and legal management of the project. Led by CTN, the consortium includes 11 partners from 5 EU countries and is organized into 8 work packages (WP). Internal communication is facilitated through collaborative tools like MS Sharepoint and specific mailing lists. ​ Regular meetings are held to ensure progress and the quality of deliverables, with an internal review process to guarantee high-quality results. ​ The COO acts as the main intermediary with the European Commission and coordinates the submission of reports and financial statements.

D1.2. Data Management Plan

This DMP details how the generated data will be managed, including its collection, storage, access, and reuse, following FAIR data principles. ​ Additionally, it describes the types and formats of data, data security, ethical aspects, and resource allocation to ensure open access and data interoperability. The document also mentions that it will be updated as significant changes arise during the project.

 

 

D1.3. 1st Updated version of the Data management plan

This update includes a detailed revision history and additional authors, unlike the original “D1.2 Data Management Plan.” Additionally, the updated document provides a more detailed and organised structure, with additional sections on data types, specific formats for each work package, and measures for data accessibility and security. More details on ethical aspects and compliance with applicable regulations have also been addede.

D2.1. Design report of the marinized SMES, detailing the geometry, general characteristics and calculation of the machine side converter

This report details the design of a Superconducting Magnetic Energy Storage (SMES) system adapted for maritime applications. A High-Temperature Superconductor (HTS) magnet is selected, featuring a modular configuration of double pancakes in a solenoidal shape with an adjustable permeability core to maximise energy density. The design includes electromagnetic calculations, mechanical optimisation, and thermal loss analysis, proposing a cryogenic cooling system to ensure performance in maritime conditions.

D2.2. WP2 engineering design which includes fabrication drawings, bill of materials, schemes for the SMES superconducting magnet, cryogenic system, and the converter

This document focuses on the engineering design and development of a Superconducting Magnetic Energy Storage (SMES) system for maritime applications. It builds on the initial design report (D2.1) and addresses technological challenges like mechanical stress, AC losses, and screening currents associated with high-temperature superconductors (HTS). The report details the manufacturing process of HTS coils, prototype testing (PK0 and PK01), and improvements made, such as adopting G10 rings to reduce mechanical stress and refining current leads to enhance electrical performance. The cryogenic system design and power converter configurations are also discussed, ensuring efficient operation under maritime conditions.

D3.1. Design report of the KESS dimensioning, rotodynamic analysis and calculation of the machine side converter

This report outlines the design of the Kinetic Energy Storage System (KESS) developed for the POSEIDON project, focusing on maritime applications. It covers the dimensioning of the flywheel, rotodynamic analysis, and the design of the electronic converter, optimised for marine conditions. The report highlights technical solutions to maximise efficiency and durability, with a storage capacity of 9.7 MJ and over 4,300 hours of operational life. Access the full document for detailed technical insights and outcomes.

D4.1. Design report of the EESS – Includes SC cell selection, DC/DC power components selection & others

This report details the design of the Electric Energy Storage System (EESS) based on supercapacitors for marine applications. It outlines the selection of components such as supercapacitor modules and bidirectional DC/DC converters, along with simulations conducted using tools like PLECS and OpenModelica to optimise the thermal and electrical design. The report also includes technical specifications, implemented controllers, and an evaluation of various supercapacitor suppliers. The system is designed to operate efficiently within a specific voltage range, meeting power requirements while ensuring durability and operational safety in marine environments.

D4.2. EESS engineering design – Includes fabrication drawings, bill of materials and schemes

This PDF presents the engineering design of an Electric Energy Storage System (EESS) tailored for marine applications. It includes preliminary electrical schematics, a bill of materials for key components, and fabrication drawings outlining the system’s mechanical layout. The design centres on a supercapacitor bank and a DC/DC converter, housed in a modular cabinet setup with water-cooling provisions. Annexes provide further technical details, including mechanical drawings and control architecture. This document lays the groundwork for finalising component integration and ensuring the system meets performance and spatial requirements

D8.1. POSEIDON dissemination, communication and exploitation plan

This Dissemination, Communication and Exploitation Plan outlines a comprehensive strategy to ensure the effective promotion and impact of its outcomes. It defines target audiences, key performance indicators, and tailored messages to engage stakeholders such as the naval industry, governance bodies, scientific communities, and citizens. The plan includes dissemination through workshops, media articles, and social media, alongside communication efforts like newsletters, brochures, and conferences. Additionally, it addresses exploitation pathways for project results, such as developing innovative energy storage technologies and assessing their commercialisation potential, ensuring long-term benefits and knowledge transfer.

D8.2. 1st Updated report on dissemination and communication activities

This update highlights progress in promoting the project’s goals and outcomes. It details dissemination tools, such as the project website, social media platforms (X and LinkedIn), and scientific publications. Key activities include conference presentations, workshops, and media engagement, aimed at raising awareness among stakeholders and the public. The report also covers internal communication mechanisms, such as mailing lists, meetings, and regular updates, ensuring effective collaboration within the consortium. Future revisions will expand on these activities, aligning them with project milestones and objectives.

D8.6. – D40 POSEIDON website operational (from Task 8.2)

This report documents the development and ongoing optimisation of the project’s official website. Initially launched in March 2024, the website serves as a platform to share public information and project updates. Following its initial release, the team decided to redesign and enhance its content and layout for improved usability and impact. Key sections, such as the home page, objectives, work plan, and partners, are being refined. The updated website incorporates performance monitoring tools, such as Google Site Kit, to ensure continuous improvement and alignment with dissemination goals.

Coming soon…