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already has experience with modern methods of convex and nonsmooth analysis and optimization, as well as the theory of monotonic operators, and is able to actively participate in research projects in
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experience with modern methods of convex and nonsmooth analysis and optimization, as well as the theory of monotonic operators, and is able to actively participate in research projects in these areas
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experience with modern methods of convex and nonsmooth analysis and optimization, as well as the theory of monotonic operators, and is able to actively participate in research projects in these areas
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that govern membrane function. Your Mission: Develop a multiscale scattering model that bridges nanoscopic and mesoscopic structure and dynamics. Mathematical Modeling: You will combine rigorous mathematical
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At the University of Vienna, over 10,000 people work together on the big questions of the future. Approximately 7,500 of them are academic staff members. These are individuals who, with
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production and assistance systems, transport optimisation, electromobility, molecular diagnostics, or e-health systems. We work project-based and in multidisciplinary teams and focus on the development
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technologies, education and participation. The research area of Computer Science in Sport specializes in topics of applied computer science in biomechanics, human movement science, performance analysis and
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by optimizing process flows, which are sequences of Unit Process Instructions (UPIs) describing operations to be performed by tools on developed wafers. The envisaged approach shall employ a hybrid AI
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at laboratory and pilot scale, establishing robust process models, and developing targeted optimization strategies. The most promising enhancements will be assessed for industrial-scale implementation
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- and solid-state NMR, EPR, DNP, Prodigy and He-Cryo units), ensuring optimal performance and reliability. Method development: Develop hardware solutions for specialized NMR applications incl. (micro