Our research group is dedicated to advancing the field of self-assembled functional hybrid materials, with a focus on cutting-edge materials science and applications in energy and surface technology. Our work integrates carbon allotropes, extended π-systems (oligomers and polymers), and organic-inorganic hybrids of 2D materials to develop novel functional materials. We also explore redox-active polymers and conducting molecules for their potential in diverse applications.
Our research is driven by the desire to harness these materials for next-generation technologies. We are actively investigating smart surfaces, including superhydrophobic coatings, to create innovative solutions in surface engineering. In the realm of energy conversion, we focus on key reactions such as hydrogen and oxygen evolution, as well as sustainable ammonia production. We are also pushing the boundaries of energy storage by developing advanced hybrid supercapacitors and both aqueous and nonaqueous metal-ion batteries, alongside all-organic battery systems.
At the core of our work is a commitment to pioneering materials that contribute to cleaner energy solutions, smarter surfaces, and more efficient storage technologies, aiming to solve some of the most pressing challenges in sustainable development.




