Our group is primarily dedicated to Supramolecular Chemistry, where we focus heavily on the rational design, complex synthesis, and detailed study of macrocycles. We’ve built our expertise using long-established molecular platforms, specifically the Calixarenes and Resorcinarenes, to construct unique supramolecular architectures.Our group is primarily dedicated to Supramolecular Chemistry, where we focus heavily on the rational design, complex synthesis, and detailed study of macrocycles. We’ve built our expertise using long-established molecular platforms, specifically the Calixarenes and Resorcinarenes, to construct unique supramolecular architectures.

In 2020, we successfully synthesized a novel class of macrocycles, which we named Prismarenes. We believe this development represents a significant step forward for the field. Our current work strongly emphasizes the creation of supramolecular capsule systems. These aren’t just containers; they function as genuine nanoreactors, enabling us to conduct catalysis within a highly confined molecular environment. This strategy is proving vital for dramatically influencing reaction selectivity and speed, effectively allowing us to emulate natural enzymatic processes.

Beyond fundamental chemistry, we maintain a strong focus on practical applications. A rapidly expanding area of research for us is the valorization of biomass. By harnessing the efficient catalysis delivered inside our supramolecular capsules, we are actively developing greener, more sustainable chemical processes. The goal here is direct: transforming biomass-derived resources into valuable chemicals.