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two main objectives: (i) establishing a theory–experiment feedback loop to identify the fundamental mechanisms governing multicellular self-organization, and (ii) developing a novel imaging platform
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transitions that are able to enhance the glass transition, recrystallization and rejuvenation in amorphous metals. The experiments will reproduce real-world working conditions as closely as possible by
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be developed in close interaction. Observations made on real leaves will guide the design of the biomimetic systems, while microfluidic experiments will make it possible to isolate and control
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the orbital magnetism of rhombohedral multilayer graphene using this technique, over the full phase diagram by varying the chemical potential, magnetic field and temperature. We expect these experiments
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is low compared to the ion cyclotron frequency. However, this low-frequency approximation does not apply to most experiments, where the phase velocity is of the same order of magnitude as the ion
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model of magmatic oceans on forming planets based on laboratory experiments. At present, high-pressure molten silicates are modelled only in a rudimentary manner, due to a lack of data on activity
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pattern) and spectral dispersion; (3) to assist in the conception and interpreta-tion of experiments conducted on LULI's laser facilities (LULI2000 and Apollon). Methodology - The numerical studies will be
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to photonic structures, in particular plasmonic structures, whose resonances are confined within a few nanometres. The equipment and experimental setups for quantum optics experiments (lasers, cryostats
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training that includes courses in planetology and planetary plasmas. • The student can demonstrate research experience (M1 and/or M2 internships) on a topic related to planetology and/or space plasmas
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appreciated skills: - experience in conducting complex experimental work with Electric applications and/or Cryogenics, - numerical Modelling skills Where to apply Website https://emploi.cnrs.fr/Offres/Doctorant