Research

Research lines

1. Smart 0D-3D Functional Architectures for Gas Sensing

This research focuses on the design and synthesis of 0D to 3D nanoarchitectures, also modified at the surface, enabling tunable performances.

The growing demand for highly selective and sensitive gas sensors is driving the development of advanced nanomaterials capable of detecting trace levels (down to parts per billion) of volatile species. Target analytes will include volatile organic compounds (VOCs) relevant for applications in environmental monitoring, industrial safety and, in particular, for non-invasive medical diagnostics.

Materials performance will be assessed under controlled conditions through gas sensing tests, while in-depth physicochemical and electrochemical characterizations will elucidate structure-property relationships and guide further optimization.

2. Smart Delivery Systems

This line focuses on the development of stimuli-responsive soft-delivery systems designed to release an active principle in a controlled way.

The carrier systems are engineered to respond to different stimuli, as pH changes, ensuring a tailored release and possible self-propelled motion.

These advanced materials are characterized and evaluated in terms of release kinetics, stability, and functionality in simulated conditions.

The approach lays the groundwork for innovative platforms that combine materials science and bio-engineering also to support personalized therapeutic monitoring.

3. Cross-cutting expertise in surface modification

Modification of material surfaces to tune interfacial properties, including wettability, adhesion, surface energy, and chemical affinity.