Advancing Supercapacitors with Plasma-designed Multifunctional Hybrid Materials - ANGSTROM

Project summary

Current rechargeable energy storage devices face important drawbacks, including long-term raw materials availability, life cycle, high prices and safety issues. Due to their fast discharge capabilities and long-term life cycle, supercapacitors are potential candidates for future energy storage. However, supercapacitors need to overcome technical problems with designing electrodes and electrolytes, stability, energy density and attaining industry standards. ANGSTROM proposes an environmentally friendly plasma-enabled approach for developing advanced materials for supercapacitors, comprising vertical nanocarbons and highly porous active materials, the latter consisting of covalent organic frameworks or a new type of “a la carte” conformal porous metal oxides. The multidisciplinary and ambitious methodology and unique expertise will make it possible to surpass the state-of-the-art supercapacitors with superior capacitive storage, high energy density and potential for reusability.

Project Details

Call

Call 2023


Call Topic

Sustainable advanced materials for energy


Project start

01.03.2024


Project end

01.03.2027


Total project costs

1.024.950 €


Total project funding

849.480 €


TRL

3 - 6


Coordinator

Juan Ramon Sanchez Valencia

Agencia Estatal Consejo Superior de Investigaciones Científicas (CSIC), CALLE SERRANO 117, 28006 MADRID, Spain


Partners and Funders Details

Consortium Partner   Country Funder
Agencia Estatal Consejo Superior de Investigaciones Científicas (CSIC)
https://www.csic.es
Research org. Spain ES-AEI
Institut "Jožef Stefan"
https://www.ijs.si/ijsw/F6
Research org. Slovenia SI-MVZI
The Central European Institute of Technology
https://www.ceitec.eu
Research org. Czech Republic CZ-TACR
IQS nano
https://iqsnano.com/
SME Czech Republic CZ-TACR

Keywords

supercapacitors, plasma processing, carbon based materials, covalent orgnic framework, metal oxides, 3D plasma printing, Porous surfaces