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the cell response. A key innovation in this PhD project is to engineer environmentally (cell)-instructive hydrogels with controlled architecture (pore size, network interconnectivity) and mechanical
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gaps exist regarding the multiscale behaviour of these treatments, from microscale pore interactions to macroscale building performance. This project will advance beyond the state of the art by
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, microscopy, spectroscopy, pore-structure characterization, geochemistry. You are interested in interdisciplinary research at the interface of materials science and microbiology and are motivated to acquire
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draw on RAMS’ strengths in radiological screening, density and porosity measurement, gas-accessible pore structure, surface area analysis and graphite characterisation, supported where appropriate by
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, from fundamental theory, laboratory experiments, and detailed numerical simulations, to mesoscale pore network modeling and upscaling to continuum-scale theories that can be applied in application
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active member of the international RosettaCommons community, which provides opportunities for collaboration, training, workshops, and networking with leading researchers in computational protein design
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active member of the international RosettaCommons community, which provides opportunities for collaboration, training, workshops, and networking with leading researchers in computational protein design
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applied physics other related disciplines. Demonstrated knowledge in at least one of the following areas: porous media flow computational fluid dynamics (CFD) pore-network modelling lattice Boltzmann method
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building materials? What reactions occur within the pore network? Which factors determine whether a treatment succeeds or fails in practice? As a PhD researcher in the CHEMBARIDA project, you will tackle