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nanostructure research and applications. Our characterization resources include triple-axis x-ray diffraction, atomic force microscopy, scanning electron microscopy, transmission electron microscopy, near-field
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of relaxation in cell populations. We have shown that such data can provide information about symmetric and asymmetric inheritance and allow prediction of rates of cell state change. We are extending this work
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of practical primary standards. Research that emphasizes and augments state-of-the-art techniques in these areas is most needed. Further JNT research opportunities are available in Gaithersburg, MD and are
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Helmholtz-energy equations of state and transport property modeling. Our group develops the most accurate state-of-the-art, reference-quality models for both thermodynamic and transport properties
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stabilized emulsions; (6) Development of new techniques for coarse-grained molecular modeling; (7) Tools and techniques for scale coupling; (8) "Virtual" in silico experiments relating theory and experiment
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experiments used as the US national standards of the ohm, farad, and in the near future, the kilogram. Each of these complex experiments have opportunities for precision measurement research that can improve
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Description Membrane proteins participate in virtually all interactions between cells and the surrounding media and play vital roles in all biological processes involving transport across cell membranes, charge
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significantly. However, several barriers have prevented metals-based AM from reaching its full potential. These barriers include limitations in uncertainties about the material properties of the feedstock metal
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edward.sisco@nist.gov 301 975 2093 Description This opportunity focuses on developing new methods, metrics, approaches, and techniques for the forensic analysis of seized drugs. Seized drug analysis is the most
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on these materials is analogous to that on synthetic quartz half a century ago, with much to be determined about crystal growth, defect evolution, and dependence on crystallographic orientation before high-performance