Prof. Nicolò Mauro is an Associate professor at the University of Palermo with a background in the design and synthesis of advanced 0-D/2-D carbon optical materials and polymers for precision cancer therapy and diagnosis. He obtained his master's degree in Pharmaceutical Chemistry and Technology summa cum laude from the University of Palermo in 2008 and completed his Ph.D. in Biomaterials at the University of Pisa in 2013. Since then, Prof. Mauro has been at the forefront of cutting-edge research, contributing significantly to the field of poly(amidoamine)s synthesis, nanomedicine, and drug delivery systems. His expertise lies in the development of theranostic carbon nanodots, graphene oxide, poly(amidoamine)s, and polyaminoacids tailored for precision therapeutic approaches such as image-guided photothermal therapy and pulsed on-demand drug /gene delivery. His work aims to revolutionize cancer treatment through the integration of nanotechnology and pharmaceutical science. In addition to his groundbreaking work in cancer therapy, Prof. Mauro’s research extends to the design of macromolecular antibiotics with broad spectrum activity. He focuses on poly-glyco-amino acid structures to address biofilm infections, presenting a promising avenue for combating antibiotic-resistant nosocomial strains. Furthermore, his contributions to biodegradable scaffolds and nanocomposites for tissue engineering applications underscore his commitment to advancing regenerative medicine. Prof. Mauro's dedication to scientific excellence is reflected in his numerous publications and collaborations with leading institutions. He has established collaborative projects with esteemed research centers, fostering interdisciplinary approaches to address complex challenges in nanomedicine.
Carbon nanodots as advanced multifunctional nanoplatforms for theranostics
Reactive melt-extrusion of polyesters as a facile way to obtain photo-stable fluorescent nanocomposites for 3D printing
Graphene oxide surface functionalization of polymeric scaffolds for the recruitment and thermal ablation of tumor cells
Gadolinium-doped carbon nanodots functionalized with redox-sensitive poly(amidoamine)s for Image-guided siRNA delivery
Microporous poly(D,L-lactide) acid-carbon nanodots nanocomposite scaffolds with multicolor emission for image-guided bone regeneration
Interconnected hybrid nanogel network for precision Breast Cancer Ablation: combining multimodal imaging, sensing, and phototherapy