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-state systems with embedded emitters, such as quantum dots integrated into photonic crystal waveguides or high-quality-factor nanocavities, giving rise to the field of quantum nanophotonics. In
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platform for the study of artificial quantum materials based on large semiconductor quantum dot lattices. By combining extended one-dimensional and bilinear arrays with high-sensitivity RF admittance
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coupling between the mechanical modes of suspended bilayer graphene and the quantum dots that can be formed within it. Bilayer graphene offers a major advantage over monolayer graphene: it allows
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and extend these cryo-electronic platforms to demonstrate coherent charge and spin control in silicon quantum dot arrays. In particular, the project will focus on the implementation of coherent electron
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access the strong-field quantum electrodynamics (QED) regime using ultra-high-power laser systems. In this extreme regime, the quantum vacuum and matter exposed to ultra-intense electromagnetic fields
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to bring essential information for the understanding of this new quantum state. Where to apply Website https://emploi.cnrs.fr/Offres/Doctorant/UMR8502-SOPGUE-006/Default.aspx Requirements Research