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Field
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modeling will be used to model processes occuring in the electrode. The obtained insights will be used to engineer and fabricate new electrode geometries with optimized mass transport and catalyst layer
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surface structuring and postprocessing of complex hip implant geometries. Design and validate a multiphysical digital model to analyse machining behaviour, electrolyte-surface interaction and resulting
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different configurations, which include direct inductive heating (using a dedicated coil) and impedance heating using auto-inductive effects in different reactor geometries, will be evaluated by your CFD-FEM
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different reactor geometries, will be evaluated by your CFD-FEM models and tested at TRL4 (10 kWe) at TU/e to identify the most promising configurations and operation modes, first only for heating purposes
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will feed into an automated stope design workflow, producing variable-length, locally adaptive geometries that optimize the balance between stability, recovery, and dilution control. Through
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+. Areas of expertise include: Geometry and topology Algebraic geometry and number theory Stochastics and mathematical finance Discrete mathematics and optimisation Discrete geometry Numerical mathematics
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Theory and Logic B - Analysis and Differential Equations C - Discrete Mathematics D - Geometry and Topology E - Numerical Mathematics and Scientific Computing F - Stochastics International elements