67 electromagnetic-mode-profile-shaping PhD positions at Technical University of Denmark
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have: good knowledge of quantum mechanics knowledge of electromagnetism and solid-state physics experience with scientific programming with e.g. Python, Matlab, Julia experience with writing a scientific
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capacity, regeneration energy, degradation resistance, and environmental profile. These will be validated in the lab and demonstrated at pilot scale at Ørsted’s facility, Skærbækværket. We seek a highly
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reactions. The key is the ability to sample the electrolyte near the working electrode and bring that to analysis instruments in a fast and repeatable way. Research field: To accelerate materials discovery
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less understood. A significant failure mode is electrochemical migration, which leads to short circuits and fire risk. The morphology and chemistry of dendrites are determined by the humidity and gas
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collaborations. Practical experience with waste materials, and experience in laboratory work related to microplastics and/or chemical risk assessment is a large plus. A proactive and independent work style. A
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reinforcement learning problems. We are looking for a profile with the motivation and drive needed for making a difference that matters. You must bring an open mindset and like to create results via collaboration
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Job Description There is an urgent need to investigate drinking water quality and characterize the toxicological and chemical profile of emerging pollutants in our drinking water. If you want
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real problem. You will participate in the integration and field testing of robotic platforms, together with our other high-profile partners from the Robotic Intercropping project. At DTU, you will be
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reporting in English Creative, proactive and independent thinking Prior experience in research in the form of student projects, and capability to work in an interdisciplinary manner are a plus. The successful
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electrodes. Your primary tasks will be to: plan and execute experimental research design, fabricate and optimize 3D carbon microelectrodes for microbial electrochemical systems in an iterative manner using