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the project period. Research environment The Department of Mechanics and Maritime Sciences (M2) conducts both fundamental and applied research across all modes of transport, aiming to contribute to sustainable
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molecular mechanisms underlying amyloid formation from the protein transthyretin. Transthyretin normally functions as a transporter protein of thyroxine and retinol-binding protein (RBP) in the serum and
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including text mining, machine learning, network science, choice modelling, causal inference, and agent-based modelling with the aim of developing deeper, mechanism-based understandings of important social
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The candidate will work on a project that aims to unravel the role of mechanical forces in maintaining and differentiating human embryonic stem cells. Specifically, the candidate will investigate how different
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energy use and minimizing environmental impact. This collaborative effort brings together expertise in materials science, physics, polymer chemistry, and composite mechanics, with a particular emphasis on
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Laboratory is addressing thermal management and advanced packaging, mainly by manipulating nanomaterials and compositions to reach maximum thermal, electrical or mechanical performance. The group has a long
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languages such as Python or C Solid background in quantum mechanics Experience from working on quantum error-correction, open quantum systems, quantum optics, bosonic codes or continuous-variable quantum
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the models and measurement methods. The position is based at the Division of Transport, Energy and Environment within the Department of Mechanics and Maritime Sciences . The division conducts
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Laue-Langevin (ILL, France), the International Institute of Molecular Mechanisms and Machines (IMOL, Poland), and the Leicester Institute of Structural and Chemical Biology (United Kingdom). Your work
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will join a multidisciplinary research program that combines experimental models, patient-derived materials, and advanced technologies to explore the mechanisms that preserve auditory system homeostasis