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If you are eager to perform cutting-edge molecular modeling to accelerate the development of green and low-carbon hydrogen technologies, then this is position is for you. Job description You will
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-relevant phenotypes using cellular, molecular, biochemical, imaging and omics approaches. These models will support compound screening and the evaluation of potential therapies. The project combines stem
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white matter. The network aims to strengthen the full translational pathway, from understanding disease mechanisms and developing disease models to preclinical therapy testing, clinical readiness and
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models; applying genome-editing approaches, including bridgeRNA-guided recombinases, to investigate therapeutic efficacy; using molecular techniques and in vivo mouse models to investigate disease
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will design, synthesize and evaluate new imaging agents, study their photochemical behavior, and support their evaluation in biological models. They will be supported by a team, including PIs (Szymanski
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Vrije Universiteit Brussel (VUB) is the recruiting organisation for this position. You will be employed by the Molecular Imaging and Therapy (MITH) research group and embedded in the POLARIS
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genuinely curious and passionate about science, motivated to work independently, and eager to understand biology at the molecular and biophysical level. You have strong critical thinking and problem-solving
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project developing next-generation circular steels that can safely operate in hydrogen environments. By combining advanced experiments with multiscale modelling, CIRHY enables reliable, sustainable steels
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regulators are then validated biochemically, in cellular and in vivo models of PD, and finally in human post-mortem midbrain tissue, so that you can connect a molecular mechanism to the disease itself. You
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liquid biomarkers for leukodystrophies by integrating multi-omics data from patient plasma and iPSC-derived human disease models. You will investigate disease-related molecular signatures using