31 creative-interactive-display Postdoctoral positions at Technical University of Denmark in Denmark
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the advantages of a creative and inspiring work environment shared with about 400 highly skilled and motivated colleagues. Responsibilities As a postdoc you will conduct research and assist with teaching in
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molecular dynamics simulations and in silico screening to assess inhibitor-target interactions and predict selectivity. Clone, express, and purify top candidates using high-throughput bacterial systems and
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the lab, and be confident in both written and spoken English. In addition, the applicant should be socially intelligent, open to collaboration, creative, ambitious, and scientifically excellent. As a formal
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-computer interaction, social networks, fairness, and data ethics. Our research is rooted in basic research and centres on mathematical models of the physical and virtual world, as a basis for the analysis
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researcher, you will join an international research environment with strong and open scientific interactions. Specifically, you will: Take a leading role in shaping and driving enzyme characterization
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forward the emerging field of Geophotonics — a novel paradigm that explores the interaction of light with natural crystalline materials to decode the dynamics of Earth's surface. The positions offer a
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and public authorities. Our research aims at strengthening welfare, productivity and sustainability within society. A key element is the role of technology and its interaction with industry and
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, cybersecurity, human-computer interaction, social networks, fairness, and data ethics. Our research is rooted in basic research and centres on mathematical models of the physical and virtual world, as a basis for
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and creativity, be open and honest and to conduct research responsibly, be excited about large challenges and enjoy solving them, have an extraordinary drive towards achieving groundbreaking results
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the project. Your main tasks will be: Develop and apply electromagnetic modelling techniques in combination with inverse design to study light-matter interactions in dielectric nanostructured optical surfaces