I graduated from University of Pisa in 2006, defending a thesis on the theoretical optical properties of Si/Ge multi-quantum-well heterostructures investigated with the tight-binding technique.
Moving to University of Trento for my PhD, under the supervision of prof. Lorenzo Pavesi, I started to focus on experimental Si photonics in visible and near-infrared range, in particular on silicon nanocrystals as active material in different waveguide and resonating photonic devices.
In my first post-doc at NEST – Scuola Normale Superiore and CNR-Nano, in Alessandro Tredicucci's group, I shifted to the THz spectral range, where I developed efficient, room-temperature detectors based on semiconductor nanowires and smart photonic structure from light extraction and control in Quantum Cascade Lasers.
Joining my expertise in photonics and charge transport, I won a Marie Curie fellowship with the aim of devising opto-electro-mechanical systems under the supervision of prof. Oskar Painter at the California Institute of Technology.
After coming back to NEST in 2014 and obtaining a permanent position in 2017, I am currently consolidating new research lines in near-infrared and THz optomechanics, as well as in strain engineering in 2D materials.
My research efforts are mostly focused in micro and nano-scale optomechanics, joining together photonics devices and mechanical resonators for novel applications in the field of classical and quantum optics. In the near-infrared range I am mostly interested in exploiting the vectorial properties of photons for enabling angular optomechanics, where both polarization and orbital angular momentum are coupled with mechanical degrees of freedom on the chip-scale. In the long wavelength range, including GHz and THz, I developed new detection schemes employing thermomechanical bolometers, capable of fast operation and scalability for sensor arrays. Employing optical probes at different wavelength, I also investigate behaviour of purely mechanical resonators, creating artificial material or complex substrates for nanoscale actuation of 2D materials.
The devices I investigate span from photonic and phononic crystals to optical and mechanical metasurfaces as well as cantilevers, trampoline membranes and Surface Acoustic Waves, made of group-IV, group III-V or metallic materials. Hybrid systems are also being investigated especially concerning their use in quantum computing applications.
Istituto Nanoscienze
Consiglio Nazionale delle Ricerche
PEC: protocollo.nano@pec.cnr.it
Partita IVA 02118311006
Piazza San Silvestro 12
56127 Pisa, Italy
phone +39 050 509418
fax +39 050 509550
Istituto Nanoscienze Consiglio Nazionale delle Ricerche
Piazza San Silvestro 12, I
56127 Pisa
phone +39 050 509525/418
fax +39 050 509550
via Campi 213/A, I
41125 Modena 7
phone +39 059 2055629
fax +39 059 2055651″
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