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the BENEFIT project, funded by the French National Research Agency (ANR), to work on active flow control and machine learning. 1- CONTEXT -------------------- Active flow control aims to modify velocity fields
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, a CNRS researcher at the Laboratoire Ondes et Matière d'Aquitaine (LOMA). “Controlled morphing of deformable materials through spatio-temporal control of ultrasonic wave fronts” “Morphing” is a
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. Despite significant progress, the fundamental mechanisms governing their formation remain only partially understood. Gaining deeper insight into these mechanisms is essential for improving control over comb
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Rennes (Brittany) Surface viscosity is a fundamental property of fluid interfaces: it quantifies their resistance to deformation and controls many physical and industrial processes. It plays a key role in
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. It has recently been coupled with a 'controller' that allows the simulation of actors deploying the SAI by optimising injections to achieve a specific climate objective: for example, global temperature
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and biocatalysis, which currently limits its application to a narrow range of polymers. This project aims to shed light on polymer-enzyme interactions by focusing on an original class of controlled
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responsible for understanding the impact of the object nanostructuring on electronic dynamics in order to better control them within nanostructures optimized for the recycling of CO2 into methane. The PhD
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of which are critical for the aerospace industry. Understanding and controlling PPBs is therefore essential to optimize the properties of the synthesized materials. The use of pulsed electric currents could
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silica or zirconia particles, using templating agents to control their morphology.1 Further, by careful surface modification of the particles, we can add a polymer shell around these anisotropic cores via
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PhD position: Nanoengineering refractory compositionally complex alloys for extreme conditions (M/F)
on the synthesis of thin films by physical vapor deposition (PVD)—including magnetron sputtering and pulsed laser deposition—at LSPM, enabling precise control of chemical composition and microstructure (grain size