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simulation approaches capable of treating systems containing millions of atomic orbitals. These methods are particularly suited to structurally disordered, amorphous and low-dimensional materials for which
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sintering with conventional thermal sintering in terms of electrical conductivity, adhesion, mechanical stability, and substrate compatibility. The candidate will perform material and device characterisation
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the mechanisms and impact of interaction between nanomaterials and cellular and animal models. This Scientist role will provide assistance to the Group Leader and also is expected to lead as PI or Co-I
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the generation of green hydrogen via solar-driven photoelectrochemical (PEC) systems. In this position, you will apply advanced electron microscopy techniques, including STEM to investigate the structure and
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electrochemistry, ferroelectricity and magnetism; magneto-ionics in patterned structures and thin films; atomic force microscopy (including magnetic force microscopy, piezo-response force microscopy, Kelvin probe
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the structure and behavior of catalytic nanomaterials critical for green hydrogen and energy technologies. The candidate will design and perform real-time in-situ TEM experiments using gas and liquid sample