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GRADUATE STUDIES
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MSc in Optics, Image, Vision, Multimedia (OIVM)
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iPSRS - Intelligent Photonics for Security, Reliability, Sustainability and Safety
- PSRS - Partner universities
- RADMEP - Radiation and its Effects on MicroElectronics and Photonics Technologies
- COSI - Computational Colour and Spectral Imaging
- IMLEX - Imaging & Light in Extended Reality
- AIMA - Advanced Imaging & Material Appearance
- PE - Photonics Engineering
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iPSRS - Intelligent Photonics for Security, Reliability, Sustainability and Safety
- MSc in Computer Science
- MSc in Health Engineering
- Engineering schools' research tracks
- Doctoral studies
- Training through research
- Opportunities
- Admission and aid
- OPTICA student chapter
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RESEARCH & INNOVATION
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SCIENTIFIC EVENTS
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The SLEIGHT Science Events
- SSE #13 - SLEIGHT in 2025
- SSE #12 - Imaging in Manutech-SLEIGHT
- SSE #11 - SLEIGHT in 2024
- SSE #10 - Sustainable Surface Engineering
- SSE #09 - SLEIGHT in 2023
- SSE #08 - Photonics for Health
- SSE #07 - SLEIGHT in 2022
- SSE #06 - Machine Learning
- SSE #05 - SLEIGHT in 2021
- SSE #03 - SLEIGHT in 2020
- SSE #02 - Material Appearance
- SSE #01 - Topics and stakeholders
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SCIENTIFIC AXIS 1: Predict and experiment light-induced surface modification processes
The first scientific axis will mainly provide, over the long term, scientific and technical outcomes for the prediction of events occurring in the timescale of ultrashort laser pulse interaction with the surface material, such as multi-scale multi-physics simulation algorithms of light absorption.
To identify and control the fundamental process guiding the transient evolution of light absorption, the strategy is based on:
- The prediction of the light energy distribution and the involved fundamental processes
- The development of multi-scale multi-physics simulation codes
- The spatial arrangement of organized surface modification and defects by controlling local energy absorption
- The control of local energy absorption to provide highly precise and large-scale techniques
- The extension of surface engineering processes on multiscale and in 3D up to 3D optical design.
- Predict a large number of physical events occurring in the same timescale of laser pulse interaction with the surface material
- Model transient optical properties by approaches combining ab initio electronic structure calculations with quantum many-body physics
- Observe material responses at the atomic scale
- Program spatio-temporal design, adaptive feedback loops, optimization concepts
- Couple coherently laser light distribution with resonant excitation, surface roughness diffusion, and light-induced defects
- Design surfaces by additive fabrication processes
RESEARCH PROJECTS
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Vanadium Dioxide-Based Films for Randomizing Photonic Emission and Absorption of Integrated Circuits
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Numerical study of the laser synthesis of nanoparticles and colloidal magneto-optical nanostructures for catalysis and sustainable water pollution control
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Study of the fundamental mechanisms of surface structuring by ultrashort laser, via the generation of terahertz electromagnetic pulses and quantitative microscopy
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Dense structures on the nanoscale
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Surface Morphology at the nanometric scale by temporal and polarization control of ultrashort laser pulses.
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In situ radioscopy of the melt pool morphology for selective beam melting
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Femto-second Laser irradiation of Metals
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Study of the biological behaviour of PVD thin film metallic glasses: effect of an ultrashort laser treatment
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Influence of ultrafast laser texturing on hydogen uptake and diffusion in metallic materials
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Ultrafast electron-molecular dynamics coupling in photoexcited silica glass
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Ultrafast laser interaction for chemical and topological functionalization of surfaces
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Radiation Effects on New Architectures of opTical Amplifiers
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3D nanostructuring of optical materials using automated vector laser beams
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Photonics-guided machine learning