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Laboratory provides an advanced thermal–vacuum facility that enables environmental testing of complete satellites and subsystems under simulated space conditions. This includes vacuum, thermal cycling, thermal
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vacuum, charged-particle optics, laser cooling, ion trapping, precision laser spectroscopy, quantum logic and atomic-clock technology. It sits at the interface between atomic physics, quantum technology
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, (cryogenic) ultra-high-vacuum systems, nanoparticle cooling, cluster science, advanced optics, laser systems and frequency conversion, mass spectrometry or matter-wave research. Demonstrable experimental
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withstand vacuum and space environments and therefore needs to be very efficient to minimize cooling. The design shall form the basis for variations that can power other related propulsion concepts in the TUD
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continuous ultracold Sr source to four clock interrogation zones that are in one vacuum chamber. Clock interrogation can always be executed in at least one zone, while others are reloaded with atoms, enabling
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vacuum conditions. Your tasks include: • Design and manufacturing of propulsion prototypes • Experimental testing and diagnostics • Modelling and performance analysis • Development of propellant-control
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: • molecular beam sources, • (cryogenic) ultra-high-vacuum systems, • nanoparticle cooling, • cluster science, • advanced optics, • laser systems and frequency conversion, • mass spectrometry
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walls of the vacuum chamber. This layer plays a dual role: it acts as a getter for oxygen, reducing the impurity content in the plasma, and it minimizes plasma-wall interactions, thereby reducing both
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, leading to a unified methodology that transforms the Ti³⁺ signal from a qualitative fingerprint into a quantitative indicator of carrier mobility and lifetime, applicable under vacuum, under operando
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Higher Education and Research (MESR). The PhD project aims to develop and implement a time-resolved tip-enhanced photoluminescence setup on a low-temperature (5 K), ultra-high-vacuum scanning tunneling