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Empa within the framework of SURPASS are as follows: Volumetric prestressing of cast and 3D-printable SURPASS overlays using Fe-SMA fibres. Meso-scale finite element modelling of volumetric prestressing
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prestressing of cast and 3D-printable SURPASS overlays using Fe-SMA fibres. Meso-scale finite element modelling of volumetric prestressing mechanisms with Fe-SMA fibres, including activation, recovery stress
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concentration gradients during charge and discharge, the evolution of interphases, and degradation mechanisms including ageing, material dissolution (leaching), and transition-metal migration. Muon-based methods
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is required: Polymer/polyurethane synthesis and characterization Molecular switches (e.g., photochromic, halochromic, or thermochromic systems) Standard analytical methods (NMR, UV-Vis, FTIR, and
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heat stress and improve thermal safety, comfort, and performance in challenging environments. Your tasks Your task will be Develop, adapt, and validate experimental and computational methods
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surface science. The aim of the project is to develop ultra-thin transition metal membranes on porous graphene. The gas transport mechanisms, including energy barriers related to H2 diffusion and resistance
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, or related methods, is also advantageous. Programming and data analysis skills in Python, MATLAB, R, or similar are advantageous. Proficiency in English; German is a plus. Enthusiasm for interdisciplinary
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characterization using electron microscopy, nanoindentation, or other methods, and light-based 3D printing is an advantage. Regarding soft skills, the candidate should have strong motivation for research (curiosity
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solid background in mechanics of materials and simulations. Experience with material characterization using electron microscopy, nanoindentation, or other methods, and light-based 3D printing is an