The Laboratory Interactions, Dynamics and Lasers - LIDYL - is a research laboratory associated with the CEA and the CNRS within the Paris-Saclay University.
The research program carried out at LIDYL aims at understanding the fundamental processes involved in light-matter interactions and their applications. The researchers develop and use laser-based light and particle sources to investigate a variety of phenomena and systems ranging from attosecond electron dynamics in the simplest atomic and molecular species to relativistic laser-induced plasmas, going through ultrafast spin dynamics in solids and the development of innovative candidates for new radiation therapies.
The research program carried out at LIDYL aims at understanding the fundamental processes involved in light-matter interactions and their applications. The researchers develop and use laser-based light and particle sources to investigate a variety of phenomena and systems ranging from attosecond electron dynamics in the simplest atomic and molecular species to relativistic laser-induced plasmas, going through ultrafast spin dynamics in solids and the development of innovative candidates for new radiation therapies.
Optical coherent manipulation of alkaline-earth circular Rydberg states
Muni A, Lachaud L, Couto A, Poirier M, Teixeira RC, Raimond J-M, Brune M & Gleyzes S. - Nat. Phys. 2022
Muni A, Lachaud L, Couto A, Poirier M, Teixeira RC, Raimond J-M, Brune M & Gleyzes S. - Nat. Phys. 2022
Demonstration of nonperturbative and perturbative third-harmonic generation in MgO by altering the electronic structure
Hussain M, Lima F, Boutu W, Merdji H, Fajardo M & Williams GO. - Phys. Rev. A. 2022
Hussain M, Lima F, Boutu W, Merdji H, Fajardo M & Williams GO. - Phys. Rev. A. 2022
Reaction Dynamics within a Cluster Environment
Briant M, Mestdagh J-M, Gaveau M-A & Poisson L. - Phys. Chem. Chem. Phys. 2022
Jun 15, 2021
Les propriétés chimiques, optiques et électroniques d’une molécule sont principalement déterminées par ses orbitales occupées de plus haute énergie.
Apr 20, 2021
L'observation de la dynamique électronique à l’échelle attoseconde (1 as = 10-18 s) est aujourd'hui devenue possible sur des systèmes atomiques, puis moléculaires et en phase condensée, grâce à la disponibilité d’impulsions lumineuses de durées inférieures à la femtoseconde et utilisées dans des dispositifs pompe-sonde.
Wed, Jun. 29th, 14:30-15:31
Séminaires LIDYL - Zhi-Heng Loh
