Mansour Benbakoura
Structure-aware computational methods for multiscale dynamics in physics
Understanding the nonlinear, multiscale dynamics of physical systems is crucial for major societal challenges such as fusion energy and space weather.
However, existing models either remain computationally intractable for applications requiring real-time or long-term prediction, or miss key physical ingredients needed to accurately capture some dynamical regimes.
Building on the observation that complex physical systems spontaneously organize into structures across scales, my research develops computational methods to detect and characterize these structures in order to build reduced descriptions of multiscale dynamics from large simulation and experimental datasets.
The figure below illustrates this workflow: a turbulent simulation is analyzed to extract coherent structures and their dynamical properties.

I currently focus on plasma physics, where multiscale dynamics, high-dimensional simulations, and sparse diagnostics naturally motivate structure-aware approaches at the interface of physics, scientific computing, and machine learning.
I am currently a postdoctoral researcher at INRIA Saclay within the MIND team. More information about my background can be found on my CV page.
Here are some keywords that broadly summarize my research:
| Physics | Methods |
|---|---|
| Plasma turbulence | Scientific machine learning |
| Fusion plasmas | Signal/image processing |
| Solar and stellar astrophysics | Sparse representations |
| Multiscale dynamics | Unsupervised learning |
| Coherent structures | Computer vision |