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Field
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materials theory, with the support of competent and friendly colleagues in an international environment? Are you looking for an employer that invests in sustainable employment and offers safe, favourable
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dynamics simulations and machine learning methods to study the structure and electrochemistry of disordered materials are also encouraged to apply. The project primarily aims to understand the complex
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of technology, people, and society to drive the transition toward a sustainable future. Through research, education, and collaboration, we create solutions that connect materials to mobility, ideas to impact
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. In particular, improved understanding of turbulent, reactive, and multiphase flows together with material sciences and novel manufacturing techniques is the key to improved heat transfer mechanisms and
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simulation and AI-supported data analysis are central tools. The work is carried out at the Department of Fibre and Polymer Technology and in collaboration with FOI and industrial partners. Qualifications
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education to enable regions to expand quickly and sustainably. In fact, the future is made here. The Department of Physics currently has about 100 employees and conducts research in areas such as Material
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that connect materials to mobility, ideas to impact – shaping a resilient and sustainable world. At the Division of Dynamics , we try to solve a number of dynamic challenges with our research. The research area
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feedstocks – including fibre structure, crystallinity, purity, accessibility and water retention – and relate these parameters to the suitability of the raw materials. You will plan and carry out systematic
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architectures with enhanced properties. Promising materials will be identified through simulations, synthesized, and experimentally characterized. Ionic transport properties, interfacial stability, and overall
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Subject description AI-based protein design and synthetic biology for developing programmable living materials, with a particular focus on the de novo design of proteins biofilm systems