135 structures-"https:"-"https:"-"https:"-"https:"-"https:"-"https:"-"Simons-Foundation" positions at NIST in United States
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, including a number with the crystal structure of langasite, have emerged as candidates for operation at temperatures well above the limit of quartz (~ 500o C). The current stage of research
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on cooling from 1 Kelvin to the milliKelvin regime using quantum tunneling in solid-state structures. key words Cryogenics; Cryocoolers; Refrigerators; Thermodynamics; Hydrodynamics; Thermoacoustics; Pulse
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allow reconstruction of challenging structural changes and complex regions like the MHC that are implicated in inherited diseases and are common in cancer genomes. Human genome benchmark assemblies
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measurements are used to monitor these surface and interfacial processes. A primary objective of our research involves characterizing surface and/or molecular chemical and structural characteristics under
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. This system is being used to see how yield loci change with plastic strain level and with changes in multi-axial strain path. Opportunities exist to study structure-property relationships using electron
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energies determined by molecular composition, structure, and vibrational mode type. Various optical methods exist to record these vibrational spectra, enabling access to the rich chemical landscape within
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for the high-throughput simulation of adsorption isotherms in nanoporous solids. References Cockayne E, Wong-Ng W, Chen YS, Culp JT, Allen AJ: Density Functional Theory Study of the Structure of the Pillared
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Structural Systems Division opportunity location 50.73.11.B4445 Gaithersburg, MD NIST only participates in the February and August reviews. Advisers name email phone Li-Piin Sung lipiin@nist.gov 301.975.6737
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(particle stabilized) emulsions for particle-interface adhesion strength, MW characterization of extended or structured polymers for organic electronics in organic solvents, characterization of interfacial
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structure and the electronic response to external stimuli. We seek to understand nanoscale variations in conductivity by leveraging our existing capabilities in AFM-based microwave impedance microscopy (sMIM