-
GRADUATE STUDIES
- • STUDYING AT MANUTECH SLEIGHT
-
MSc in Optics, Image, Vision, Multimedia (OIVM)
-
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
-
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
-
RESEARCH & INNOVATION
-
SCIENTIFIC EVENTS
- • News and about
-
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
- Manutech-SLEIGHT Awards
- Scientific conferences
- Events in partnership with Manutech-SLEIGHT
- CAMPUS LIFE
- ABOUT US
- NEWSLETTER
Leader in photonics for surface engineering, the Manutech-SLEIGHT Graduate School focuses on bringing significant knowledge and finding answers to three scientific questions.
Predicting and experimenting light-induced surface modification processes
Axis 1: Predict and experiment light-induced surface modification processes using ultrashort laser pulse interaction for the identification and control of the fundamental processes guiding the transient evolution of absorption of light and the surface modifications.
Research axis #1
Research axis #1
Extracting full information and meaning from surface imaging
Axis 2: Extract full information and meaning from surface imaging including Artificial Intelligence skills, by developing safer, faster, and more elaborated diagnosis tools, in various environments such as harsh media or in situ diagnostic of biological tissues and the industry by offering in-situ control.
Research axis #2
Research axis #2
Engineering and controlling light-induced surface modification effects
Axis 3: Foster a decisive technological leap in engineering and control of light-induced surface modification effects for a new generation of smart laser structuring tools, with the perspective of processing on ultimate scales and the development of micro-nano structured and functional surfaces with optical, mechanical, chemical physical and biological properties.
Research axis #3
Research axis #3