Projects

Sustainable and high-performance solid-state electrolytes address a clear need in battery R&D. The FUNCY-SSB project will develop sustainable by design solid-state electrolytes with enhanced electrochemical performance.

The INERRANT project is committed to pushing the boundaries of current LIB technologies by focusing on the development of innovative material combinations, advanced electrolyte formulations, and eco-friendly recycling methods that prioritise safety and recyclability. This holistic approach targets the entire battery lifecycle, from design and manufacturing to end-of-life recycling.

The REWIND project has set an ambitious goal: to significantly improve battery recyclability in order to enhance resource efficiency and reduce CO2 emissions.

The objective of the ReUse project is to improve the circularity and sustainability of the entire low-value LFP battery waste stream - from production scrap to end-of-life LiB.

The NaKlaR project is developing solutions for the remaining challenges that will lead to sustainable sodium-ion-batteries with improved electrochemical performance.

Switchable electrochromic films that darken but remain transparent are expected to achieve this in the future. The fact that this can also be retrofitted in existing buildings is to be demonstrated by the joint project "EnOB: FLEX-G 4.0 - Technologies for innovative switchable films as a retrofit solution for energy-saving windows and glass facades" (funding reference: 03EN1048), funded by the German Federal Ministry of Economic Affairs and Climate Action BMWK.

The vision of RESPECT project is to contribute to paving the way for increasing global competitiveness, strategic autonomy, and circularity of the European battery ecosystem by developing innovative green recycling and materials recovery processes, and thus supporting the growing Li-ion battery manufacturing in Europe.

The project RecyLIB aims to establish sustainable, low-energy and highly efficient manufacturing and recycling chains for lithium-ion batteries.

With increasing registration numbers of electric vehicles, sustainable production and recycling of traction batteries are gaining in importance - literally. Thanks to coordinated joint research efforts, battery cells should also be able to be produced in Germany and Europe in the future. Against this background, cell production processes must be as environmentally friendly and battery materials must be recovered and reused as efficiently as possible. Only in this way can battery-based electromobility become truly future-proof and sustainable.

The subject of the German-Canadian joint project FLAiM is the combination of flexible automation, artificial intelligence (AI) and machine learning (ML) to accelerate the development of materials for optoelectronic technologies, such as electrochromic (EC) windows and organic light-emitting diodes (OLEDs).