Innovative nanostructured materials and smart textile electrodes for new generation of batteries and supercapacitors - INNENERMAT

Project summary

The project will be focused on the development of novel active materials for competitive energy storage devices: batteries and supercapacitors (SC) with a focus on the main components: active material, electrolyte and design of the device. It is planned to design structurally and chemically advanced functional carbon materials, smart textiles, metal oxides and hybrid materials to make a substantial advance in performance. Besides, improvements in the electrolytes through developing new polymers and gels will also be considered. Finally, due to the multidisciplinary consortium, it will be also possible to design flexible concepts for storage devices, with special emphasis in textile-based technologies. The participation of the industrial partners will allow to integrate easily all the new developments and to perform a proof-of-concept for different applications, allowing to reach TRL6 for flexible batteries and supercapacitors at the end of the project.

Project Details

Call

Call 2019


Call Topic

Functional materials


Project start

01.09.2020


Project end

31.08.2023


Total project costs

1.594.796 €


Total project funding

1.087.450 €


TRL

3 - 6


Coordinator

Prof. Dr. Ana Arenillas

CSIC-INCAR, Francisco Pintado Fe 26, 33011 Oviedo, Spain


Partners and Funders Details

Consortium Partner   Country Funder
CSIC-INCAR
https://www.incar.csic.es/mcat
Research org. Spain ES-AEI
DLR Stuttgart
https://www.dlr.de
Research org. Germany DE-JÜLICH
Varta Microbattery GmbH
https://www.varta-microbattery.com
Large industry Germany DE-JÜLICH
University of Calabria
https://www.unical.it
University Italy IT-CALABRIA
Centro Ricerche ASTREA
https://www.astrearicerche.eu
SME Italy IT-CALABRIA
CNR-ITAE
https://www.itae.cnr.it
Research org. Italy No Funding

Keywords

advanced functional materials, electroactive material, electrochemical energy storage, electrical property, nanostructured materials, Advanced surfaces, Energy efficiency