Her research aims to deliver nanoarchitectures to build bespoke diagnostics, by harnessing high-precision fabrication methods and advances in surface engineering. The assembly in hierarchical structures with tuneable electrochemical properties and surface chemistry is intertwined with the material’s functions. Her interest lies in gathering new knowledge on the relationship between architecture/biointerface and function, to design sensors underpinning personalised clinical management of infections. She aims to develop bioelectronic devices unveiling the mechanisms of resistance to antibiotics, and the role of quorum sensing in virulence expression. She has also interest in wearable biosensing technology fostering advances in therapeutic drug monitoring of antibiotics. The contribution of all these tools to guide antibiotics choice and dosage is foreseen as a key driver toward effective treatment, protecting patients from antibiotics adverse effects and dwindling antibiotic resistance.