Press material

• AENEAS Logo

• AENEAS Project presentation

• AENEAS Flyer

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Videos

• Hybrid Energy Storage Demonstration

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• Final Project Presentation Video

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Newsletters

• Newsletter 1 (July 2024)

• Newsletter 2 (Nov. 2024)

• Newsletter 3 (Nov. 2025)

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Papers

• AKBARZADEH, Mohsen et.al.: "Assessing Electrochemical Energy Storage Technologies for Waterborne Transport Systems" at TRA 2024, 15.-18.04.2024 Dublin, Ireland - (PDF) Assessing Electrochemical Energy Storage Technologies for Waterborne Transport Systems – April 2024

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• GUVEN, Ogus et.at.: "Integrating System Modeling with CFD Simulations to Define Design Points for Supercapacitor Module Optimization” - Integrating System Modeling with CFD Simulations to Define Design Points for Supercapacitor Module Optimization | Request PDF  - October 2024

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• ​WECKX, Sam, SURTI, Ankit, TAO, Zhenmin: "Evaluating Hybridization Potential Using Load Profile Metrics: A Rule-of-Thumb Approach” (PDF) Evaluating Hybridization Potential Using Load Profile Metrics: A Rule-of-Thumb Approach - October 2025​​

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Deliverables

• D1.1  First version of operational profiles and ESS requirements for a broad range of vessels

• D1.2  Report with defined use cases for the demonstration of 3 ESS at TRL 5

• D1.3  Checklists for operational safety for the selected broad range of vessel types

• D1.4  Final set of operational profiles and ESS requirements for a broad range of vessels

• D1.5  Evaluation framework captured in a testing and monitoring protocol for WP5

• D2.1  Components model of ESS, PMS/EMS, power consumers and mission profile

• D2.2  Vessel simulation models for the 3 use-cases and constrains of optimization algorithm

• D2.3  Optimized pre-design model

• D2.4  Verified and validated pre-design model

• D3.1  SC, SSB and semi SSB cell samples are available and characterized

• D3.2  Electro-thermal and safety models for three technologies

• D4.1  ESS module sizing and conceptual system design including BoP

• D4.2  Hardware design and assembly of the module prototypes

• D4.3  Performance and functional testing of the ESS modules

• D5.1  HIL simulation models for ship power system

• D5.2  Development of a downscaled real-time platform for testing

• D5.3  Validation of the ship power system with downscaled PHIL platform

• D5.4  Upscaled evaluation of the ESS performance

• D6.1  Interim exploitation plan

• D6.2  LCIA, LCC, TCO, safety assessment

• D6.3  Feasibility analyses in serving EU/IMO targets, including report on business cases

• D6.4  Final exploitation plan, including IPR

• D6.5  Roadmap towards full scale on-board demonstrators for two ESS solutions by 2027

• D6.6  Roadmap for expansion of application area, including access to public and private funds

• D7.1  Project website

• D7.2  Communication and Dissemination action plan report

• D7.3  Revision of Communication and dissemination plan report

• D7.4  Final stakeholder definition and engagement plan

• D7.5  Dissemination activities overview report

• D8.1  Project management handbook

• D8.2  Risk management plan

• D8.3  Data management plan

• D8.4  Data management plan (revision 2)

• D8.5  Final Data management plan

• D8.6  Research Ownership list

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Milestones achieved

• M1  3 defined AENEAS use-cases

• M2  Optimized pre-design model ready, enabling definition of optimized vessel architecture

• M4  150 SBB cell samples available

• M5  150 SC cell samples available

• M6  Electro-thermal model for SC and SSB as input to T.2.2, 4.2 and 4.3

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