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quality, including interface roughness and interdiffusion, precise layer thickness and local magnetization value. We will make use of X-ray scattering, scanning probe microscopy, Atom Probe Tomography, and
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fluorescent viscosity-sensitive probes and confocal/infrared microscopy, and also by XCT scans, to get valuable information on the final deposition, following polycondensation at the microscale, and the results
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desirable: microwave engineering, confocal microscopy, scanning probe microscopy, magnetic resonance spectroscopy, and scientific programming in Python. Prior experience with hardware electronics such as
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with a broad toolkit: magneto-transport, ferromagnetic resonance and propagating spin-wave spectroscopy, and synchrotron-based scanning transmission X-ray microscopy (STXM) for direct, time-resolved
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characterization using TEM techniques such as scanning transmission electron microscopy, convergent beam electron diffraction, electron energy loss spectroscopy, and geometrical phase analysis Investigation
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of low-temperature scanning tunneling microscopy and spectroscopy, non-contact atomic force microscopy, photoelectron and x-ray absorption spectroscopies, and time-resolved pump-probe techniques. Our experiments
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in physics, materials science, nanoscience, or a related field. Experience with UHV systems, optical spectroscopy, scanning probe microscopy, or 2D materials is advantageous but not required. Our offer
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. Students grow materials atom‑by‑atom — often only a single layer thick — or assemble stacked 2D heterostructures, and probe their electronic structure using techniques such as photoemission, scanning probe