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project is to overcome these limitations through the design of a flexible, quantum sensing foil based on an atomically-thin two-dimensional (2D) material. Our approach consists in using optically-active
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) designs and/or studies materials with novel properties. This requires expertise in material synthesis, advanced characterization, physical property studies, as well as modeling and theoretical description
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(ISCR), is to design electrochemical and optical tools to analyze this process, enabling determination of optimal conditions for surface functionalization. This will require the development of two new
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-renowned expertise in the field of Time and Frequency metrology, with access to the OSCILLATOR-IMP platform, which includes three active Hydrogen Masers, three Cs clocks, as well as optical frequency combs
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, there is a strong demand for the development of non-invasive methodologies, able to probe chemical gradients in the vicinity of individual nano objects in operando conditions. In this PhD thesis, we plan
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embolism events, trigger high-speed acquisitions, and measure their dynamics over timescales ranging from several hours down to a few microseconds. The work will include designing and automating
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–Science research-creation project bringing together engineering, life sciences and design. This interdisciplinary framework will enable the candidate to develop innovative experimental models while engaging
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primarily on data analysis and on developing expertise in stochastic processes and related theoretical methods at IEMN. The second part of the project will involve the design and construction of a light-sheet
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instrumentation for the early detection of dissipation/quench, initially through voltage measurement, but other approaches (radio frequency, optical fiber, etc.) may also be considered. These developments will be