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with high-speed and energy-efficient InP and GaN chips. This research opportunity at NIST’s Communications Technology Laboratory is focused building the tools and techniques that are required to design
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traditional thin-film devices include exceptional structural quality, high surface-to-volume ratio, bottom-up device engineering with high-density on-chip integration, and utilization of quantum size effects
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RAP opportunity at National Institute of Standards and Technology NIST Chip-scale atomic magnetometers Location Physical Measurement Laboratory, Time and Frequency Division opportunity location
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the potential of quantum states of light for advanced measurements and computation, integration in a chip-scale nanophotonic environment is required. In particular, the integration of single-photon sources with
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NIST only participates in the February and August reviews. The Communications Technology Laboratories (CTL) dependence on dated bandlimited coaxial and rectangular-waveguide calibration services
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the “NIST-on-a-chip” program, we are designing and building chip-scale accelerometers as field-deployable SI-traceable standards. The accelerometers employ a micromechanical structure in conjunction with a
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RAP opportunity at National Institute of Standards and Technology NIST Block Copolymer Lithography Location Material Measurement Laboratory, Materials Science and Engineering Division
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RAP opportunity at National Institute of Standards and Technology NIST Confident Identification of Metabolites in Biological Samples Location Material Measurement Laboratory, Chemical and
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infrastructure to its limits. Naturally, engineers have pushed existing devices and networks to ever-increasing frequencies in an effort to address this multifaceted problem by improving data rates and adding
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computational tools to predict materials properties at the quantum level. In addition, electronic structure methods that go beyond the accuracy of DFT such as Quantum Monte Carlo, GW, and other advanced