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Field
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experience in a diverse range of areas including: materials chemistry, nanoporous materials, materials’ synthesis, ex-situ and in-situ atomic force microscopy, powder and single crystal X-ray diffraction
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paramagnetic resonance (EPR), or magnetic resonance imaging (MRI) Familiarity with analytical tools: X-ray diffraction (XRD), scanning electron microscopy (SEM), X-ray computed tomography (XRCT) Expertise in
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of immunity to environmental influences. Conventional experimental techniques such as dilatometry, optical and electron microscopy, electron backscatter diffraction and x-ray diffraction with Rietveld
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microscopy, particle size and surface area analysis, density measurements, and X-ray diffraction. In-situ techniques such as thermogravimetric analysis and dilatometry will be applied, complemented by
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to large-scale facilities for neutron and X-ray diffraction. This range of experience will give you flexibility and independence in a future research career, whether within the academic system or outside
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the 2025 Nobel Prize in Chemistry. Electron microscopy and electron diffraction offer powerful tools for advanced structural characterization. Aberration correction now enables imaging with true atomic
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simultaneous wave interactions, including reflections, diffractions, refraction, and turbulence-induced scattering. Such effects not only complicate noise prediction but also disrupt conventional approaches
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in any of the following methods will be advantageous: Single-crystal crystallography, Powder X-ray diffraction, NMR, UV-vis, IR and Luminescence spectroscopy, electrochemistry. The candidate will hold
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in any of the following methods will be advantageous: Single-crystal crystallography, Powder X-ray diffraction, NMR, UV-vis, IR and Luminescence spectroscopy, electrochemistry. The candidate will hold
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superalloys. This will involve detailed characterisation using scanning and transmission electron microscopy, X-ray diffraction, and mechanical testing. Thermodynamic and kinetic modelling will also be