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STFP Home sign in | focus RAP opportunity at National Institute of Standards and Technology NIST Burning Velocity Measurement and Predictive Methods for Marginally Flammable Refrigerants
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solutions can be sought through the design of efficient and accurate numerical solutions. Analytic solutions to similar problems or numerical approximations can be used to validate mathematical models
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networks will require the parallel development of optical links. We have leveraged the advent of robust optical frequency combs along with advanced digital signal processing techniques to develop methods
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combining physics with tools from applied analysis, probability theory, asymptotics, optimization, and numerical methods to identify and quantify instrument-induced variability, inherent measurement
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Devices Gaithersburg MD 50.77.11.C0664 NIST NRC Postdoctoral Research Position in Immersive Scientific Visualization Gaithersburg MD 50.64.51.B7841 NIST Numerical Methods in Chemical Spectroscopy and
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resilience design practices. See https://www.nist.gov/programs-projects/design-methods-resilient-community-systems Research areas include but are not limited to: Quantitative approaches to identify
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of this research are to (1) develop methods to measure indoor chemistry impacts related to building materials, air cleaners, and Wildland Urban Interface (WUI) fires; (2) predict concentrations of
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quantum computing platforms. Working closely with scientists in the Physics Measurement Laboratory at NIST and external collaborators, a successful candidate will extend our recently developed ML
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Advancing the state of the art in measurements of sound, vibration, force, acceleration and velocity
Quantum Measurement Division realizes measurements of sound, vibration, force, acceleration, and velocity at the highest levels of accuracy, and uses the developed methods to disseminate traceability
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flexible electronics for next generation electronic materials. Appropriate projects could include methods to reliably print electronic materials while preserving their attractive electronic properties