-
. - Process, analyze and interpret mass spectrometry data and complementary analytical data. - Assess the performance and limitations of the different approaches and propose methodological improvements
-
activities are as follows: - investigation of plasma polymerization kinetics on model substrates; - identification of the different growth regimes; - chemical, physical, and mechanical characterization
-
selectivity between materials and minimize plasma-induced damage, will be evaluated as part of this study. To achieve this objective, it will be necessary to understand the etching mechanisms of the different
-
microbiology, bacterial genetics, CRISPRi approaches, and bioinformatics analyses to identify the molecular and genetic determinants underlying strain-to-strain differences in stress responses. In particular
-
attention to linking the estimates to interpretations in terms of coexistence and rapid evolution. This approach will be compared with existing estimates of the relative selective value of snail species and
-
of aerosol-cloud interactions in the Arctic region. The goal will be to analyze their impact on the Arctic climate, thereby reducing uncertainties in climate projections. - Development and improvement of WRF
-
surface based on elementary or unit cells incorporating active materials (electrically or optically), will require the development of technologies capable of replacing semiconductor components distributed
-
simulations (MD), including the development or use of appropriate interatomic potentials to study adsorption, diffusion, and thin-film growth, as well as ion–matter interactions during deposition, whether ion
-
team, where the agent will work under the supervision of a CNRS researcher and interact with researchers and students at different levels, including BTS, Bachelor's, Master's and PhD students. The agent
-
the simulation of turbulent flows using a tensor network representation of the Navier–Stokes equations. Unlike recent approaches based on tensor networks, which simulate fluid flows in physical space using finite