Analytical Chemistry

Significant increases in the presence of organofluorine compounds, especially per- and polyfluoroalkyl substances (PFAS), have been reported in the various environmental compartments.  Many of these compounds, including their precursors and metabolites, remain challenging to detect and quantify using current analytical methods.  PFAS have the potential to undergo metabolic transformation processes under biotic conditions in the presence of suitable microbial communities and under varying environmental conditions, each with its unique metabolic pathways.  Yet microbial degrada

his research focuses on the design and optimization of supramolecular deep eutectic solvents (SUPRADES) for the extraction of bioactive compounds and the exploration of potential applications. SUPRADES represent a novel subclass of deep eutectic solvents (DES) that could have a significant impact on green chemistry due to their enhanced inclusion properties, offering a promising alternative to conventional solvents. They may provide higher selectivity and efficiency in extracting different families of compounds.

The innovation in this study lies in enhancing conventional sensors through the integration of advanced materials such as graphene and its derivatives. These materials, derived from carbon, a widely abundant, renewable, and sustainable element, exhibit exceptional properties, including high molecular adsorption capacity, superior electrical conductivity, and remarkable mechanical strength. Their multifunctionality not only enhances sensor performance but also promotes material efficiency by significantly reducing the resources required for production.