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clusters and dielectric nanoparticles from molecular beams to levitated optomechanics. We work on novel tools for quantum sensing, mass spectrometry and biomolecular chemistry. Our team is member of
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clusters and dielectric nanoparticles from molecular beams to levitated optomechanics. We work on novel tools for quantum sensing, mass spectrometry and biomolecular chemistry. Our team is member of
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and atomically thin dielectrics. The work combines advanced instrumentation, 2D-material assembly, Raman spectroscopy, and low-temperature STM/STS. A central goal is to investigate how interfaces and
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on the ultrafast response of dielectric materials driven by intense laser fields. The central goal is to understand how strong laser excitation induces ionization, plasma formation, nonlinear optical effects, and
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clusters and dielectric nanoparticles from molecular beams to levitated optomechanics. We work on novel tools for quantum sensing, mass spectrometry and biomolecular chemistry. Our team is member of
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(GWS) that allow for fine dispersion control in high power laser resonators or more generally high power laser applications. A GWS consist of a dielectric multilayer planar waveguide structure with a
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objective of the thesis will be to demonstrate the feasibility of charge amplification for isotopes relevant to future DESIR experiments, with a particular focus on establishing and optimizing dielectric
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clusters and dielectric nanoparticles from molecular beams to levitated optomechanics. We work on novel tools for quantum sensing, mass spectrometry and biomolecular chemistry. Our team is member of
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for excavation based on radar methods. The physical basis of radar depends on the dielectric contrast between dry and wet soil around the pipes. This contrast appears as an anomaly in the radargram, providing
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. The group's expertise is focused on experimental research using different types of plasma reactors (gliding arc, arc, microwave plasmas, glow discharges, and dielectric barrier discharges), as