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analytical methods, including data analysis and novel statistical approaches. We are particularly interested in characterizing microbial cells in the planktonic state as well as communities of cells
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, bioinformatic, and chemometric analyses of large-scale data; (2) chemical annotation and/or elucidation of metabolites using spectroscopic techniques (NMR and mass spectrometry) for establishing/contributing
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dielectric constants, large piezoelectric coefficients, and colossal magnetoresistance. Materials with optimal properties are generally solid solutions, often involving four or more different metal ions
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technologies, we will be able to interface with a broad range of AMO systems including individual, arrays, and ensembles of atoms and ions in free space as well dilute ensembles in solid state volumes
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or solid-state emitters with applications including sensing, time keeping, and quantum computing. Photonic metasurfaces [1,2] can be used as a platform for integrated fabrication of free-space optical
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technique, a successful applicant will have a solid background in programming (Matlab, Python, or equivalent). Experience with any of the following lock-amplifiers, vector network analyzers, resonators is
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silicon), and is uniquely sensitive to interfaces. We are currently studying (1) the structure and kinetics of small molecules interacting with solid supported biomimetic membranes and vesicles in
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-exciton and charged exciton complexes. We are interested in the fundamental properties of these transitions as well as the coherence in these coupled-state systems. Optical phenomena such as
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collaborative environment that couples multidisciplinary scientific interactions with state-of-the-art nanofabrication capabilities and advanced measurement tools. Keywords Quantum dots; Directed assembly