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punctual mobilities within the partners of the project consortium. The PhD task will be dedicated to the 3D printing of nano-structured polymer materials by photo-Polymerization Induced Microphase Separation
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-dimensional (3D) materials which are facing several obstacles including (i) a limited sensitivity resulting from the dim proximity that can be achieved between the quantum sensor and the target sample, and (ii
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cells including macrophages). - Modelling of CKD-like vascular injury in 3D vascular organoids derived from induced pluripotent stem cells (iPSCs), exposed to phosphate, uremic toxins and pro-inflammatory
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strains) and assess their role in CaCO3 dissolution, before and after pressurisation. • Develop and run multiphysics numerical models in COMSOL (3D geometries from tomography, transport–reaction coupling
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have access to state-of-the-art facilities, including cleanroom microfabrication, laser micromachining, 3D printing, advanced microscopy, and numerical modeling tools. The project benefits from a close
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the rise of generative artificial intelligence, 3D digitization, and immersive environments (XR). These technologies enable new forms of cultural production, including heritage reconstruction, interactive
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of research. We propose a novel approach: to design solid cellular materials (3D-printed), whose shape and mechanical properties evolve in a controlled manner in response to internal depressurisation; using
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effects, such as 2D/3D propagation and beam speckle patterns, which remain largely unexplored because they require significant simulation capabilities. This thesis aims to conduct a systematic kinetic
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parallel synthesis of digital polymers. The polymers formed will be characterized by HPLC, GPC, NMR and MS. The 2D and 3D organization of these polymers will also be part of the objectives of the thesis
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platform for large-volume 3D microscopy of ex vivo mouse tissue, called chromatic multiphoton serial microscopy (ChroMS) (Abdeladim 2019, doi.org/10.1038/s41467-019-09552-9; Blanc 2023, doi.org/10.1021