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Field
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quantitative imaging, we work towards a multi-scale understanding of how molecular composition and subcellular organisation shape cell function, plasticity and disease. A central biology focus of the lab is
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objective will be to adapt tissue-clearing techniques for multimodal nonlinear imaging while preserving both the structural integrity of the biological specimens and the integrity of the optical signals
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by sequences of femtosecond laser pulses, using a suite of femtosecond time-resolved magneto-optical spectroscopies, as well as magnetic imaging using a dedicated magnetic force microscope and magnetic
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Context and Challenges: Optical resonators based on metasurfaces could offer innovative perspectives for photoacoustic imaging, particularly due to their ability to combine guided-mode resonance and very
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robotic platforms, integration of optical and imaging-based feedback, and development of modeling and control strategies for operation in complex biological environments. Particular attention will be given
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project is to overcome these limitations through the design of a flexible, quantum sensing foil based on an atomically-thin two-dimensional (2D) material. Our approach consists in using optically-active
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and data analysis. You will design, build and operate a cryogenic experimental setup in which gas composition, pressure, flow rate and surface temperature can be controlled. Using optical imaging
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international equivalent) in one of: Software Engineering; Biomedical Engineering; Electrical/Optical Engineering; Mechanical Engineering; or Computer Science with a focus on imaging or applied data science
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or experience in LLMs, tool-using agents, or agentic workflows. Experience in optoacoustics, ultrasound, optical imaging, spectroscopy, or related technologies. Interest in entrepreneurship, innovation transfer
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workflows. Experience in optoacoustics, ultrasound, optical imaging, spectroscopy, or related technologies. Interest in entrepreneurship, innovation transfer, or commercialization. Fluency in German and