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Deliverables

D3.6 Scale-up of Materials - update

This deliverable presents the MUSIC project´s progress in scaling up sustainable materials for sodium-ion capacitors (SICs), contributing to the development of a European value chain. It covers the selection and production of activated carbons derived from sawdust waste and recycled carbon fibres from the aeronautical industry, alongside advances in sacrificial sodium salts for pre-sodiation and the scale-up of innovative electrolyte formulations. These developments represent important steps towards transferring sustainable materials from laboratory research to larger-scale production.
Deliverables

Deliverable 8.2 LCA and LCC of prototype cell (M30) and complete system

Deliverable D8.2 presents the first environmental and economic assessment of the sodium-ion capacitor technology developed within the MUSIC project. Using Life Cycle Assessment (LCA) and Life Cycle Costing (LCC) methodologies, the study identifies key environmental hotspots and cost drivers related to materials, electrolytes and manufacturing processes. The findings provide valuable insights to improve sustainability, reduce production costs and support future industrial scale-up.
Deliverables

D4.2 Electrode-electrolyte interaction análisis

D4.2 – Electrode-electrolyte interaction analysis investigates the interfacial processes that influence pre-sodiation, gas evolution and SEI formation in sodium-ion capacitors. The study compares disodium squarate and disodium croconate using advanced operando and spectroscopic techniques, revealing clear differences in their behaviour and providing valuable insights for optimising material selection, safety and long-term cell performance.
Deliverables

Deliverable 7.3 Electrical characterisation of LIC modules

Deliverable D7.3 reports the electrical characterization and functional validation of a preliminary 12 V module developed within The MUSIC Project using commercial lithium-ion capacitor cells as a technological analogue for future sodium-ion capacitor cells. The work validates the performance of the innovative Supercapacitor Management System (i-SMS), including sensing, passive balancing, protection mechanisms and thermal management, across different temperatures and current profiles. The results confirm safe module operation within defined limits, demonstrate improved voltage and thermal uniformity, and provide key design lessons for the future MUSIC sodium-ion capacitor module, particularly in relation to mechanical integration, heat dissipation and system-level safety.
Deliverables

Deliverable 3.1 Synthesis of advanced active materials

Deliverable 3.1 focuses on the development of new active materials to enhance the performance of sodium-ion capacitors
Deliverables

The MUSIC project 2nd Trifold

The updated MUSIC project trifold provides an overview of the project’s objectives, consortium, and technological roadmap, while reflecting the progress achieved to date. It highlights where MUSIC currently stands along the development pathway — from novel materials and advanced characterisation to electrode prototyping and module-level validation — and illustrates how the project is advancing towards sustainable, high-performance sodium-ion capacitors for energy, industry, and transport applications.

 

 
Deliverables

Deliverable D1.4 Data Management Plan #2

This is the first version of the project Data Management Plan (DMP). It contains preliminary information about the data the project will generate, whether and how it will be exploited or made accessible for verification and re-use, and how it will be curated and preserved. The purpose of the Data Management Plan is to provide an outline of the main elements of the data management policy that all consortium partners will have to comply with for all datasets that will be generated by the project.
Deliverables

Deliverable 7.2 Development of complete i-SMS for a LIC module

Deliverable 7.2 presents the mechanical and electrical developments associated with the LIC-based prototype. The module consists of four pouch-type LIC cells connected in series, and its mechanical design addresses several key aspects, including the method of interconnection between cells, the integration of a pressure management system to ensure mechanical stability, and the incorporation of distributed sensing for monitoring key parameters at the cell level.
Deliverables

D1.1. Project Management Handbook

The purpose of this Project Management Handbook is to provide guidance to all MUSIC project partners and to support them in finding relevant information quickly and easily.

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