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Development of Nuclear Analytical Imaging Techniques for Materials Analysis with Spatial and Spectral Specificity NIST only participates in the February and August reviews. The objective
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RAP opportunity at National Institute of Standards and Technology NIST Chemical and Structural Spatial Distribution of Biofilms Location Material Measurement Laboratory, Biosystems and
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systems for generating ultrafast pulses in the IR through UV; instrumentation for multichannel spectral, spatial, and polarization analyses of generated optical signals; sample characterization with
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the specificity of IR spectroscopy with the resolution of AFM, enabling IR analysis with a spatial resolution smaller than the optical diffraction limit (< 10 nm at 300 K, < 0.1 nm the goal of this project). STML
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301.975.2282 Description The spatial resolution and sensitivity of autoradiography cameras continues to improve, supporting measurements in preclinical and clinical medicine, environmental monitoring, and
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of their spatial resolution and quantitative measurement. They are posed now to advance from benchmark tests on well-defined geometries and materials to structures and integrated devices of interest for nanoscale
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-deconvolution algorithms that can account for peak asymmetry due to imperfect shims; the use of spatially selective or multidimensional NMR methods; and the development of reference materials, especially for gas
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separation as the incident beam is parallel to the vorticity direction. The possibility to access spatial resolution in the gap is essential for resolving shear-induced phase separation. This is a unique
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supercontinuum spectral interferometry and other techniques. Coherent control techniques for all-optical injection of charge and spin currents, coupled with spatially-resolved pump-probe measurements, will be used
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using spectral interferometry, electro-optic sampling, and other techniques. Coherent control techniques for all-optical injection of charge and spin currents, coupled with spatially-resolved pump-probe