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bulk crystals. Grow epitaxial antiferromagnetic oxide thin films, such as α-Fe2O3, Cr2O3, NiO, using magnetron sputtering system. Build and measure cavity coupling with antiferromagnetic magnon modes in
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, characterizing mass transfer and selectivity under flow conditions, and screening and tuning DES compositions to optimize solubility, speciation, and electrochemical accessibility for target elements
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. The selected candidate will develop computational models at the mesoscale and/or macroscale based on the principles of mass, momentum, and energy conservation to describe processes such as morphological change
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circuits that couple to both macroscopic magnetic crystals as magnon target mass and solid-state single-electron qubit with magnetic field compatibility. Develop superconducting hybrid circuits that couple
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battery systems using techniques such as: thermogravimetric analysis (TGA) TGA-mass spectrometry (TGA-MS) and related methods Broad understanding of materials science concepts relevant to electrochemical
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conditions to control membrane microstructures and transport properties. Design electrodes, electrolyte, and interfacial layers for solid-state batteries. Characterize mass transport phenomenon. Develop
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emission spectroscopy or mass spectrometry (ICP-OES/MS). Demonstrated experience in microbiological techniques, including microbial cultivation under aerobic and anaerobic conditions, strain maintenance and
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time-resolved hard X-ray diffraction microscopy and spectroscopy on single-crystalline bulk and thin film quantum materials (e.g. ferroelectrics, multiferroics, strongly correlated electron systems
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(NUCLEI); and two Topical Collaborations: 1) 3D quark-gluon structure of hadrons: mass, spin, and tomography, and 2) Nuclear Theory for New Physics. Further information on our group and its research