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100%, Zurich, fixed-term We are seeking for a curious and motivated PhD student to join our optomechanics team and work at the interface between integrated photonics /nanophotonics and optical
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entanglement-based methods due to technical challenges, yet this limits the impact such technologies can have. In this project, we aim at further developing photonic integrated circuits for quantum communication
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of biopolymers using state-of-the art techniques. Assemble bio-based materials using advanced 3D printing (binder jetting and two-photon polymerization) and characterize the resulting material properties. Publish
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utilises cutting-edge recording techniques, including two-photon calcium imaging, high-density Neuropixels electrophysiology, and spatial transcriptomics, alongside computational analyses, to uncover novel
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should be highly motivated and creative, should have a Master’s degree in physics, nanotechnology, material science, photonics or related fields, and be interested in working in an interdisciplinary
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multidisciplinary team and use state of the art methods such as Nanoindentation, Raman Spectroscopy, Digital Light Processing, Two-Photon Lithography, Electron Microscopy, and Numerical Simulations. Your research
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materials relevant to photonics, (opto)electronics, energy conversion and storage, catalysis, or quantum information science. Candidates are expected to pursue highly interdisciplinary research
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spectroscopy, or theoretical materials science approaches. These methods should be applied to the study of molecules and solid-state materials relevant to photonics, (opto)electronics, energy conversion and
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plasmon resonance (LSPR) are strong photon-induced collective hot-electron coupling effects, which can create intense and sensitive electromagnetic near field. SPR and LSPR have found intriguing successes
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(SPR) and localized surface plasmon resonance (LSPR) are strong photon-induced collective hot-electron coupling effects, which can create intense and sensitive electromagnetic near field. SPR and LSPR