Research
Turbulence & multifractals
My research explores the multiscale nature of turbulence, with particular emphasis on intermittency, scaling laws and multifractal statistics. I investigate both Eulerian and Lagrangian turbulence, from theoretical approaches to experimental and geophysical applications.
Stochastic processes and scaling
I develop and apply stochastic approaches to characterize complex multiscale signals. My work focuses on scaling, long-range dependence, stochastic processes and multifractal models, with applications to turbulence and geophysical time series.
Ocean dynamics & complexity
I study the variability of physical and biogeochemical processes in the ocean across a wide range of spatial and temporal scales. Particular attention is given to turbulence, air–sea interactions and the multiscale dynamics of coastal and open-ocean environments.
Plankton & marine ecosystems
My research investigates how turbulence and environmental variability affect plankton dynamics and marine ecosystems. This includes experimental studies of plankton–turbulence interactions and observations of biological variability in coastal and lagoon environments.
Climate & environmental dynamics
I use multiscale approaches to investigate environmental and climate variability, from high-frequency observations to long-term records. Current applications include marine heatwaves, coastal ecosystems and the analysis of climatic and paleoclimatic time series.
Turbulence, wind & renewable energy
I apply turbulence and scaling approaches to wind-energy systems, from atmospheric wind variability to turbine dynamics and power production. This work aims to better characterize multiscale fluctuations and their propagation through wind-energy conversion systems.