We work within the NEO team on energy storage and micro-storage, specifically focusing on developing porous electrodes using pseudocapacitive materials (RuO2, MnO2) for supercapacitors/micro-supercapacitors. This theme spans a multidisciplinary spectrum, from micro and nano-technologies to materials science, including modeling, chemistry, and electrochemistry. Our approach encompasses the entire process, from the synthesis and structuring of electrodes to the integration of functional components through microfabrication processes.

To elucidate reaction mechanisms, we incorporate ab initio atomic simulation and ReaxFF molecular dynamics, correlated with experimental electrode characterizations. Additionally, we explore the chemistry of electrolytes and ionic liquids in collaboration with the University of Montreal.

Simultaneously, we focus on maturing prototypes, concurrently realizing multiple components on a single wafer. Our primary objective remains cost reduction, covering processes and active materials, along with developing generic technologies adaptable to various substrates. This aligns with our commitment to fundamental research and practical applications, actively contributing to advancing energy storage while ensuring environmental impact reduction.