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. The successful candidate will be joining the Atomic Quantum Optics group led by Prof. Dr. Morgan Mitchell, in an experiment on the interaction of single photons and entangled photon pairs with individual trapped
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at least two independent computational methods (e.g. electronic ground-state and excited-state approaches, molecular dynamics and electronic structure, structural and spectroscopic properties ...). Main
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, taking into account that socially interacting hosts can exchange gut microbes (horizontal transmission), and evaluating the effect of these factors on emergent phenotypes (gut metabolome and host behaviour
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, deployment, and commissioning of free-space optical links in the metropolitan area of Barcelona. These links will serve as test platforms for various quantum communication devices in ground-to-ground scenarios
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broad experience in the development of electronic structure methods and their application in order to perform atomistic simulations of molecules and materials. These include (but are not restricted
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Experience with metabolomics data analysis or QTL analysis and quality control would be a plus Previous experience in building and interacting with relational databases (e.g., PostgreSQL) and APIs would be a
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transfer and clinical translation. Industry Interaction: Specific experience in collaboration with companies and participation in co-development projects. Publications and Presentations: A track record of
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transfer and clinical translation. Industry Interaction: Specific experience in collaboration with companies and participation in co-development projects. Publications and Presentations: A track record of
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are interested in exploring a particularly intriguing one: the SU(N) Fermi-Hubbard model. It describes fermions of spin N and SU(N)-symmetric interactions, for which intricate magnetic orders and exotic spin
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at least one of the group’s active research areas, which focus on the interaction of electromagnetic fields with matter, ranging from single atoms to mesoscopic solid-state objects (e.g., dielectric nano