We aim to understand the mechanisms of mucus clearance in the airways from a hydrodynamic perspective. We combine numerical modeling and laboratory experiments to study the conditions that promote effective mucus clearance.
The project, in collaboration with the Institute of Porous Materials in Paris (ENS-ESPCI-CNRS), and the CBI of ESPCI Paris, aims to control diffusion-osmosis at chemical interfaces for controlled passive mixing near the surface of ion-exchange membranes. This will inhibit concentration polarization and unlock the full potential of blue energy technologies.
Post-Doc with the Physique department of ENS Lyon and the Polymer Materials Engineering laboratory of Lyon 1 University, France.
Optical single molecule characterisation of natural and synthetic polymers through nanopores.
Post-doc in the Micro/Bio/Nano Unit at OIST, Japan.
How the beating of cellular cilia in a surrounding fluid gives rise to fluid transport and coordinated cilia motions is a 70-year-old problem, but it remains an open question due to the complexity and the diversity in the length scale of the phenomenon involved. Theoretical studies suggest that the non-Newtonian hydrodynamic coupling between cilia plays a crucial role. This conjecture requires a systematic study of the non-Newtonian effects on large arrays of passive slender objects. Yet, no such experimental investigation has been conducted because of the technological difficulty of making well controlled large arrays of micron-size structures with high aspect ratios, in an environment suitable to resist highly viscous and viscoelastic flows. We conduct the first systematic, quantitative study of the interaction of a large array of micrometric passive cilia-like structure with a biomimetic biopolymer solution with non-Newtonian features.
My system presented by the YT channel, the Lutetium project ! With the sound on, its even better.
PhD in the Gulliver laboratory, ESPCI Paris, PSL university. Doctoral contract with the École Doctorale Physique en Île-de-France.
Water droplets swimming in oil are a very peculiar example of micro-swimmers. Being a potential biocompatible carrier at the microfluidic scale, it is of utmost interest to understand their swimming :
in confined geometries - from one wall to 1D microchannels,
against an external pertubation - like a force, or an external flow,
when they are interacting with each other, from binary collisions to collective motion.
Internship at the Experimental Soft Condensed Matter Group , Harvard University.
Internship at Saint-Gobain-Recherche in partnership with the LIGM laboratory in the “Algorithms, architectures, analyse et synthèse d’images” team.