146 structures-"https:"-"https:"-"https:"-"https:"-"https:"-"University-of-Kent" positions at NIST
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of integration. We are developing advanced electronic, thermal, and mechanical measurements to evaluate the performance, reliability, and security of advanced microelectronic structures. Experimental techniques
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transformations produced by metabolically active microbes. Microbial abundances and growth rates (fitness), determined using NGS, allow predictions of changes to community structure over time. While
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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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diagnostics of plasmas with an x-ray free electron laser. key words Atomic spectroscopy; Atomic structure; Highly-charged ions; Collisional-radiative modeling; Atomic collisions; Plasma spectroscopy; Atomic
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pool properties, material cooling rates, material grain structure, and the mechanical properties of bulk parts. These models attempt to resolve a variety of complex physics that occur during laser-metal
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the “NIST-on-a-chip” program, we are designing and building chip-scale accelerometers as field-deployable SI-traceable standards. The accelerometers employ a micromechanical structure in conjunction with a
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intensity variation; noise perception and removal, and ambiguous identifications. We are interested now in exploring the techniques to tackle the problems associated with fragmentation pathway or structure
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structure-mechanical property relationships are needed to enable diverse applications of these materials. There is a need for quantitative measurement methods to study the interfacial properties of the filler
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consequences. Currently, it is not possible to accurately predict the long term performance of a textile or fiber composite used for ballistic protection. Quantitative measurements of molecular structure
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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