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Crystallographic investigation of novel materials using Neutron and X-ray diffraction and vibrational spectroscopy NIST only participates in the February and August reviews. Neutron and X-ray
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provide improved techniques and/or methods. We work heavily with industrial and academic partners to improve these measurements. Crystallographic texture; Phase fraction; Electron backscatter diffraction
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mechanistic understanding of the gas-framework interaction. Neutron diffraction and spectroscopy techniques are used to investigate the gas adsorption in a variety of porous framework materials
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dioxide capture, storage, and utilization. We use diffraction and neutron scattering techniques to study structures and dynamics of CO2 after absorption in order to elucidate location and dynamics of CO2 in
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characterization techniques to determine processing-structure-property relations that occur during processing, including scanning and transmission electron microscopy, thermal analysis, and x-ray diffraction
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NIST only participates in the February and August reviews. Frequency combs are a powerful sensing tool capable of measuring broadband spectra with high resolution and high precision. The diffraction
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research seeks to address these challenges through an integrated approach combining high-speed X-ray diffraction (XRD) and other synchrotron-based scattering experiments and advanced data analysis. Central
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facilities also include more traditional metallurgical instruments including light optical microscopy, scanning electron microscopy with EBSD and ECCI capabilities, TEM, and x-ray diffraction, as
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acquisition techniques are combined to extract nanoscale dimensional information well below conventional diffraction limits. These measurements are optimized by tailoring the illumination so as to yield
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the use of light to probe and drive optomechanical systems for use in practical sensors and fundamental quantum measurement science. Our primary current research direction involves the use of diffractive