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Istituto Italiano
di Tecnologia (IIT)

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The Plasmon nanotechnologies group in IIT develops novel nanostructures and photonic-plasmonic nanodevices for bio applications.

The main goal is to exploit advanced nanofabrication techniques for controlling the properties and the response of materials at the nanoscale. Particularly, we cover all of the aspects of the research spanning from the design to the fabrication, characterization and practical application of nano-bio sensors. The main activities concern the application of nanodevices to the study of complex bio-molecules, neurons, and cardiomyocytes.

People

Alessio Boschi

Alessio Boschi graduated in Bioengineering at the University of Genoa in 2020. He worked on his master thesis at Unige in computational neuroscience, gaining experience in modelling biophysical neural networks. Then, he joined the “Plasmon Nanotechnologies” group led by Dr. Francesco De Angelis at Istituto Italiano di Tecnologia to pursue a PhD in Bioengineering and Robotics – curriculum Bionanotechnology. Currently works as a PhD student in the same group focusing on the fabrication of a novel biosensing platform for in-vitro neuronal and cardiotoxicity.

Francesco Difato

I received my Master degree in Biomedical Engineering from the University of Genoa. My Masters thesis, entitled “Quantitative volumetric reconstruction of bio-images by confocal microscopy”, was awarded the 2002 GIC-Italian Cytometry Group Prize (annual award for the best graduation thesis in bioengineering)[1,2]. For my PhD, I spent four years at the Academy of Science of Czech Republic (ASCR) and Charles University in Prague, where I developed expertise on live imaging techniques with one-photon and two-photon confocal microscopy. At ASCR, in collaboration with Luca Vannucci, I developed an in vivo experimental protocol to characterize melanoma structures in anesthetized mouse through label-free approaches 3. At Charles University, I performed live imaging in vitro to identify the early steps of polyoma virus entry in cells, and I used single virion video tracking and FRET assay to investigate the role of endocytic trafficking in viral infection [4]. In 2006, I moved to SISSA in Trieste as a research fellow, where I worked on the application of wavefront phase modulation in an optical tweezers setup, to perform force spectroscopy measurements on growth cones of  developing dorsal root ganglia neurons. As part of that work, we proposed an autocatalytic model of actin polymerization, which constitute the principal motor of cellular motility [5,6,7]. Such model predicts a constant velocity of cell protrusion respect to the counteracting force of an obstacle, because a positive feedback increases the actin filament branching, and therefore the number of filaments that pushes the load. As a result, the force per filament and the growth velocity remains unchanged.

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