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- <span lang="en">Max Born Institute of Nonlinear Optics and Short Pulse Spectroscopy, Leibniz Institute in FVB e.V.</span>
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neutrons. Simulation and interpretation of experimental data will be carried out in collaboration with Prof. Jan Rusz at Uppsala University. In-house electron diffraction and complementary X-ray and
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searches with ADMX and DMRadio, and astrophysical studies of dark matter; gamma-ray and X-ray observatories including the Fermi Gamma-ray Space Telescope, NuSTAR, and IXPE (X-ray polarization), as
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PhD Position - Operando X-ray Characterization of Catalytic Interfaces for Chemical Hydrogen Storage
further develop in situ and operando X-ray spectroscopy approaches for probing the bulk, surface and interface regions under reaction conditions, depending on the scientific question. Contribute to the
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range of neutron methods by up to a factor 100. The optics is inspired by the X-ray thin film technology used in telescopes by NASA and ESA. In Europe, such X-ray optics is produced by DTU Space spin
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state-of-the-art molecular dynamics simulations for building a molecular model of casein micelles. Advanced x-ray and neutron scattering experiments, will be used to validate the model. Scattering
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<span lang="en">Max Born Institute of Nonlinear Optics and Short Pulse Spectroscopy, Leibniz Institute in FVB e.V.</span> | Berlin, Georgia | United States | about 14 hours ago
range. These capabilities are combined with advanced nonlinear spectroscopic techniques, extending in particular into the extreme ultraviolet (XUV) and soft X-ray regimes. Experiments at MBI’s in-house
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techniques. The ultimate goal is to build computational frameworks capable of predicting X-ray spectra with an accuracy sufficient to support experiments in materials and life science, catalysis, and
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for tuneable, artificial biofilms within 2D and 3D porous media. By combining cutting-edge optical and X-ray imaging techniques with systematic variation of material and flow conditions, your
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be conducted both in-house and at large scale facilities using neutron, X-ray and muon probes. In addition, there will be a focus on developing your own codes or adjusting existing programs to advance
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damage using acoustic emission (AE), scanning electron microscopy (SEM) and X-ray tomography Co-supervise BSc and MSc student projects in the area You must document experience (e.g., courses) in