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. Similarly, quantum computing architectures use engineered strains to achieve more desirable band structures but are also subject to large strains from coefficient of thermal expansion mismatches between
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practical quantum applications. This research is critical for the development of robust quantum materials, future computing architectures, and the dissemination of new metrology standards. We invite
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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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dichalcogenides. These materials systems may have far-reaching applications, extending from neuromorphic computing to compact multiple-input multiple-output antennas. By achieving the aims of this
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properties to enable a broad range of electronic, photonic, and sensor applications, including for flexible/transparent electronics, beyond-CMOS logic and memory, quantum computing, etc. Excellent
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telecommunications systems needed to ensure US leadership in autonomous infrastructure, exascale computing, and augmented reality. In a nutshell, this program is making a really amazing fourier synthesizer
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semiconductors, including diamond, make these materials among the most prospective for high-frequency power electronics, quantum computing, solar-blind radiation detectors, and bio-medical applications
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economic systems. The final methodology will include the following: selected priority indicators, the analytical approach(es) for computing each indicator over time in a relevant manner for at least
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framework), (2) developing design criteria for achieving recovery-based objectives, (3) computing the collapse risk of new and existing buildings and infrastructure systems, (3) developing improved
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Gaithersburg MD 50.68.62.C0390 NIST (S)TEM Characterization of Superconducting Materials for Quantum Computing Boulder CO 50.68.51.C0233 NIST 3D Thermal Imaging and Control with Magnetic Nano-objects