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Field
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(fluorescence or CD or NMR or EPR, for example). Protein and cofactor quantitation’s, standard curves, analysis of spectra, making figures. Anaerobic technique, including gas train (vacuum line) and glove box
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, and related instrumentation. Construct, integrate, troubleshoot, and maintain experimental systems, including vacuum, cryogenic, optical, electronic, data acquisition, and detector readout systems
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, oxidation, smelting with/without vacuum, alloy processing, and recycling studies (55%). • Perform process development, experimental design, materials characterization, and interpretation of metallurgical
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are widely available for 1064 nm and 1550 nm, but 2090 nm is unconventional and demands new sensors with quantified photon detection efficiency, dark current, vacuum compatibility, and front-end heat
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-fibre setups, including the design and use of gas systems, beam stabilisation systems and vacuum systems. Experience of programming for data acquisition and analysis (preferably in Python). Experience
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), chromatographs (gas and liquid), vacuum equipment (pumps, chambers) and laboratory equipment (analytical balances, centrifuges, motors, refrigeration and other temperature-controlled devices, etc.). The primary
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. Proven skills in experimental design. Desirable Criteria: 1. Experience with crystal growth techniques such as Bridgman, Czochralski, or related methods. 2. General familiarity with vacuum
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in the operation of the world’s most sensitive interferometers, and/or the R&D program for future detector improvements. Examples include optimizing the squeezing of the vacuum to minimize quantum
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future gravitational-wave detectors. Experience in one of the following areas is desired: optics, electronics, controllers, vacuum systems, or interferometric simulations for gravitational-wave detectors
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detectors, ultra-high vacuum, tritium gas handling, magnetometry, cryogenic engineering, charged-particle trapping, atom trapping and cooling, RF/microwave cavities and radiation detection, FPGAs, Python, C