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-performance antenna systems. The project includes analysis, design, and experimental validation of lens antennas based on physical optics, transformation optics, metasurfaces, and glide-symmetric structures
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-matter interactions Demonstrated scientific independence, for example through first authorship, leadership of data analysis, initiation of collaborations, or protocol design Experience in or interest in
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could develop the algorithms, models and software that: design and simulate self-assembling DNA nanostructures and molecular machines; turn artificial molecular networks into images — reconstructing where
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skills in experimental design, laboratory and field research on animals, statistical modelling and programming, evidence synthesis, climate modelling, open and reproducible research, scientific writing
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), analyse their structure from the ensemble to single molecule level, and apply our findings to design new nanoparticles to study, diagnose and treat a range of diseases. We place particular focus on using
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or complex systems models of mobility under disruption. Contributing to the design of dynamic synthetic populations and behaviourally plausible mobility agents. Modelling how individuals, groups and networks
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that couples wall chemistry, wall stiffness, and turgor pressure, then use that model to design targeted experiments that separate what the receptor detects: the chemical products of wall remodelling
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validation, the research will identify the structural and chemical features that govern their performance. Building on these insights, computational methods will be used to explore and design new composite
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as a critical design metric. Key research objectives include: Mixed-precision algorithms: Designing and implementing mixed-precision formulations for key domain-specific kernels to leverage low
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on the candidate’s background and interests. The work may include: Design and fabrication of bioelectronic devices (e.g., flexible or stent-based systems) Development and characterization of in situ polymerized