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challenge: how to evolve classical communication networks to support both traditional data and the unique requirements of quantum information systems (https://www.classique.aau.dk). CLASSIQUE will address a
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degradation and failure mechanisms, and associated uncertainties. Your work tasks The PhD student will develop their own research track within the project, whilst supported by close supervision by AAU’s leading
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programme Materials Science, Mechanical and Manufacturing Engineering, is open for appointment from 01.04.2026 or soon thereafter. The position is available for a period of 3 years. Job description The PhD
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will be used to analyze the electrical-thermal-mechanical behaviour of different integration and packaging technologies and to assess their impact on system performance and circularity trade-offs
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to evolve classical communication networks to support both traditional data and the unique requirements of quantum information systems (https://www.classique.aau.dk). CLASSIQUE will address a suite of
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. The project involves close collaboration across disciplines: materials chemistry, electronic packaging, and power electronics. As a PhD student, you will join the Glass Structure and Mechanics Group and be
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sodium based glass-ceramic electrolytes for solid-state batteries. The project aims to deliver safer, more affordable batteries by focusing on sodium oxide materials that are chemically robust and easier
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process in porous materials, that also include the characteristics of novel, reused and bio-based materials in respect to fungal growth, frost damage and other relevant deterioration mechanisms. Following
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developing solid teaching skills. You are willing to work with problem-based learning and to involve students actively in their own learning processes through project work, supervision and dialogue-based
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by a collaboration partner Perform a comprehensive CFD-based sensitivity study to reliably assess the impacts of key sub-models (e.g., green fuel combustion mechanisms, radiative heat transfer