The activities of the department are grouped around Fluid Mechanics, Mass and Heat Transfer and Energetics. We conduct research of a generally fundamental nature, with applications in the energy, transport, health and environment sectors.
Approach and perspective
The approach of the Mechanics-Energetics department is at the interface between computer science, physics and applied mathematics.
We wish to maintain a balance between interdependent activities:
understanding the fundamental phenomena of turbulent fluid mechanics,
tackling complex multiphysics problems coupled at large scales,
leveraging our physical knowledge while considering data as an inherent part of modeling, experiments and simulations.
In this context, we are very open to recent developments in machine learning, which offer a powerful information processing framework that can augment our current lines of research with broad-spectrum applications in the energy, transportation, health, and environmental sectors.
Organization
The Mechanics-Energetics Department offers original and multidisciplinary research thanks to the expertise of some twenty permanent staff, researchers, teacher-researchers and engineers, organized into two complementary teams: DATAFLOT (DAta science, TrAnsition, FLuid instabiLity, contrOl & Turbulence) relying on data-augmented modeling and artificial intelligence, and studying fluid dynamics, instabilities and turbulence, and COMET (COuplages MultiphysiquEs et Transferts) focusing on the understanding of complex coupled fluid phenomena, involved in energy conversion and storage, heat transfers as well as energy efficiency optimization.
Nathan Carbonneau, Julien Salort, Anne Sergent. Small coherent structures in rough turbulent convection. 27e Rencontre du Non-Linéaire, Mar 2024, Paris, France. ⟨hal-05349336⟩
Daniele Noto, Alexandre Allauzen, Sergio Chibbaro. An efficient training method to learn a model of turbulence. The European Physical Journal Plus, 2024, 139 (3), pp.298. ⟨10.1140/epjp/s13360-024-05056-8⟩. ⟨hal-05356011⟩
Nathan Carbonneau, Julien Salort, Yann Fraigneau, Anne Sergent. Effet de la suppression du vent sur la convection turbulente de Rayleigh-Bénard. 28e Rencontre du Non-Linéaire, Mar 2025, Paris, France. ⟨hal-05349347⟩
Nathan Carbonneau, Julien Salort, Yann Fraigneau, Anne Sergent. Effet de la suppression du vent sur l’émission de panaches en convection turbulente rugueuse. GdR Navier-Stokes 2.00, Jun 2025, Marseille, France. ⟨hal-05353144⟩
Nathan Carbonneau, Julien Salort, Yann Fraigneau, Anne Sergent. Effect of the wind depletion on the turbulent Rayleigh-Bénard convection. 2nd European Fluid Dynamics Conference (EFDC2), Aug 2025, Dublin, Ireland. ⟨hal-05349321⟩
Lyes Kahouadji, Mosayeb Shams, Debashis Panda, Abdullah M. Abdal, Seungwon Shin, et al.. The crown: Rolling splash. Physical Review Fluids, 2025, 10, pp.110511. ⟨10.1103/t2zw-4577⟩. ⟨hal-05375558⟩
Michel Pons, Lionel Mathelin. The fluctuations of the outdoor temperature as a source of immaterial entropy production in energy conversion processes. Energy Conversion and Management, 2026, 347, pp.120485. ⟨10.1016/j.enconman.2025.120485⟩. ⟨hal-05282663⟩