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Field
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of coherent, multidimensional, and ultrafast spectroscopy, including the design, construction, and maintenance of associated optical, laser, and microscopy instrumentation. ● Collect and analyze data
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advanced correlative microscopy techniques, combining coherent X-ray diffraction imaging (CXDI) and STED super-resolution microscopy. The researcher will: • Develop new multimodal imaging strategies; • Work
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(Rietveld refinement and PDF analysis), of Dr. Marie-Ingrid Richard’s group at CEA Grenoble, experts in Bragg Coherent Diffraction Imaging (BCDI) and of Dr. Frédéric Maillard group at LEPMI, which is
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experimental fluid mechanics, particularly in optical flow-visualization techniques. The successful candidate will conduct advanced laboratory experiments to study the dynamics of gas coherent structures and the
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-disciplinary environment? Information Many of the most challenging problems in science and engineering involve physical systems that evolve over time while exhibiting rich mathematical structure. Fluid flows
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a small fraction of the sample voxels need to be re-measured to detect the change, rather than the complete 3D volume. Microchip samples are also highly structured, with known design rules, which can
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to develop and apply quantum sensors to problems in biophysics. Quantum sensors exploit the coherence and state-dependent response of individual quantum systems to detect magnetic, electric, and
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a small fraction of the sample voxels need to be re-measured to detect the change, rather than the complete 3D volume. Microchip samples are also highly structured, with known design rules, which can
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. This allows us to shift from the standard imaging question of "what is the structure of this sample?" to "how does the structure differ from the known design?". The second question can be answered with far
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technologies for imaging the living human inner ear. This project combines biomedical optics, optical coherence tomography (OCT), ultrafast lasers, image-guided surgery, and otology to address one of the most