MASTERPIECE focuses on creating a digital arena to facilitate the creation and operation of Energy Communities across Europe. The main objectives are to empower energy consumers and foster collaboration paving the way towards a new energy market paradigm; create user-centric solutions to naturally accelerate citizens’ involvement; propose innovative business strategies and incentive mechanisms to activate market participants’ reaction; establish standardised cybersecurity infrastructure to protect citizens and privacy; demonstrating the feasibility and replicability of project’s innovations across diverse geographical and frameworks real-life pilots.

The project aims to revolutionise tidal energy generation by increasing rotor swept area by 70%. It focuses on delivering reliable, cost-optimised 13m tidal turbine blades, implementing advanced structural condition monitoring, optimising blade/controller designs, enabling circularity in blade manufacturing, and advancing digital maintenance management. Key objectives include achieving cost reduction and supporting European supply chain solutions for tidal stream energy. The project targets significant socio-economic benefits, environmental impact through increased renewable energy utilization, market transformation in the renewab.

The overall objective of MISSION is to develop and demonstrate key SF6-free switchgear components for the future AC and DC systems to enable emission-free energy transmission in a resilient and sustainable electric grid. The project will develop three key switchgear components that eliminate the use of SF6 and address critical technology gaps for AC and DC grids.

The Mopo project aims to develop an innovative energy system modelling toolset for sustainable and resilient planning. It combines data production, scenario management, and sector-specific optimization, based on existing tools like Spine Toolbox and SpineOpt. Mopo will provide an open-access, high-resolution Pan-European dataset for adaptable energy planning. The modular design ensures wide applicability across various energy planning contexts, aiming for substantial sector-wide adoption within two years after completion.

The NaturSea-PV project aims to enhance the durability, reliability, and cost-effectiveness of offshore floating photovoltaic (PV) substructures. It focuses on developing innovative structural designs and eco-friendly materials to withstand harsh marine conditions while reducing installation costs. Key objectives include conceptual substructure design inspired by nature, circular materials development, predictive computational tools for durability assessment, and testing in realistic offshore conditions.

NEMO project aims at advancing the state of the art of battery management systems (BMS) by engaging advanced physics-based and data-driven battery models and state estimation techniques. Towards achieving this goal, the consortium tends to provide efficient software and hardware to handle, host, process, and execute these approaches within high-end local processors and cloud computing.