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on developing advanced magnetic resonance imaging (MRI) that can provide better artefact-free images and more precise quantitative measurements. This research includes developing: new methods for RF and gradient
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NIST only participates in the February and August reviews. Project Description:NIST is developing a novel neutron interferometric phase imaging method using a grating-based, far-field interferometer
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communities impact all aspects of the world in which we live, and our relationships with surrounding microbial populations can have negative and positive impacts on the survival of both. The development
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position or our work. Additive Manufacturing; High-Speed X-ray Diffraction; Phase Transformation; Machine Learning; Structure-Process-Performance Relationships; Nonequilibrium; Metastable phases; Physics
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Nuclear Magnetic Resonance (NMR) and Magnetic Resonance Imaging (MRI) are key techniques used in the biological and medical fields, there is a growing use of these technologies in industrial settings
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301 975 3155 Description The project aims to develop nanoscale optical imaging microscopy using DUV and EUV light sources for accurate characterization of nanoscale structures that contributes
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, internal dynamics, materials physics and chemistry is of primary importance in determining the processing, performance and viability of advanced ceramic components such as relevant to solid oxide or hydrogen
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operating frequencies above 100 GHz are used in a wide variety of applications—examples include radio astronomy, climate monitoring, mm-wave imaging, and high-speed wireless data relays. The main method
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of novel optical methods for nanoscale dimensional measurements using the NIST 193 nm Microscope: a newly upgraded, custom-built, world-class high-magnification optical imaging platform optimized
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Development of magnetism-based future electronics is fueled by demand for large memory capacity and high data processing rates. New technologies such as hard drives with bit-patterned media and magnetic memory