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laser pulses to create (periodic) assemblies of nanosized chiral spin textures on demand. These tunable structures are predicted to host topological spin waves, and will provide a unique playground to
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instruments, such as detectors and lasers operating in the UV to FIR wavelength ranges, fibre-optic sensors, lidars, optical communication systems and quantum technologies. The Section is staffed with around 25
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and imaging capabilities, and on applying THz (emission) microscopy to study 2D materials and 2D heterostructures. The microscope will use femtosecond lasers to generate and detect terahertz pulses
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-world applications where size, weight, power consumption, and long-term stability are critical. This project aims to overcome these limitations by integrating recent advances in laser cooling, matter-wave
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of the Next Generation Gravity Mission (NGGM) will rely on the high-accuracy measurement of the variation in inter-satellite distance due to the time-varying gravity field via a laser tracking instrument and
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manufacturing capabilities, allowing us to manufacture more versatile optical systems, including lasers, cavities, frequency references and more. If successful, you will be able to join OpticsFoundry and bring
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at NIOZ (e.g. confocal laser scanning microscopy laser ablation-ICP-MS,) you will investigate ion uptake mechanism and crystallization dynamics: this will help predicting future marine calcification rates
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the device and for algorithm efficiency as compared to qubits. We will explore the use of tightly focused laser beams and their interaction with crystals of trapped ions to realize new ways to prepare and
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to achieve continuous Bose-Einstein condensation [Nature 606, 683 (2022) ]. We are building two types of such clocks: a superradiant clock and a zero-deadtime clock. A superradiant clock is a laser that lases
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radar interferometry (InSAR) integrated with GNSS and airborne laser scanning. The PhD candidate will: Develop a recursive, dynamic monitoring strategy for near-continuous 3D surface displacement