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or hazardous environments where calibration is infeasible, intrinsic thermometer accuracy is crucial. Our Compact Blackbody Radiation Atomic Sensor (CoBRAS) is based on measuring fluorescence ratios of optically
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applications in manufacturing, aerospace, defense, engines, energy production, and research. However, substantial challenges to implementing such sensors are associated with the temperature limits, thermally
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attracted considerable attention for potential application in nanoscale devices, including beyond-CMOS electronics, quantum computers, chemical sensors, photodetectors, etc. Prospective advantages over
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RAP opportunity at National Institute of Standards and Technology NIST Microfabricated Magnetic Sensors and Novel MRI/NMR Agents and Microdevices Location Physical Measurement Laboratory
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Fundamental Studies of Transduction Phenomena for Microscale and Nanoscale Chemical/Biochemical Sensors NIST only participates in the February and August reviews. Sensors are typically designed
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RAP opportunity at National Institute of Standards and Technology NIST Decay Energy Spectrometry (DES) Using Transition Edge Sensors (TES) For Measuring Absolute Activity of Radionuclides
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NIST only participates in the February and August reviews. Rydberg atoms offer a unique way to realize the Kelvin, which will substantially improve the reliability and accuracy of radiometry, thermometry, remote sensing, RF communications, and frequency standards. In particular, Rydberg states...
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photonic integrated circuits (PICs) for photonic control of next generation quantum sensors. A major thrust of this work is the development of heterogeneous PICs operating at sub-micrometer wavelengths
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Advancing the state of the art in measurements of sound, vibration, force, acceleration and velocity
of sound, force, and vibration; accurate optomechanical sensors for sound, force, and vibration; quantum acoustical measurements based on phonon counting and entanglement; optimal incorporation of physical
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) characterizing novel nanomagnetic contrast agents using NIST NMR/MRI, 3) combining low-field MRI with neural sensing using low field atomic magnetometers, 4) developing and testing advanced magnetic sensors in