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Description Our research group focuses on the discovery and experimental validation of novel electronic states in quantum materials. This program seeks to isolate and control exotic phenomena—such as integer
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using them to demonstrate new applications in quantum information science. We have used radio-frequency interferometry to achieve ultra-sensitive high-speed single-photon detection [Applied Physics
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corrected for, the noise and drift can directly affect not only the initial calibration of qubits, but also the coherence times and, ultimately, fidelities of the quantum control and readout operations
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RAP opportunity at National Institute of Standards and Technology NIST High-Performance Cryogenics Location Physical Measurement Laboratory, Quantum Electromagnetics Division opportunity
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[email protected] 303.497.3882 Description Josephson junctions can be used in circuits that perform logic operations in picoseconds and may enable high-performance, energy-efficient, cryogenic computers
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the use of laser pumping and silicon micromaching. This proejct develops compact magentic sensors than combine high sensitivity and accuracy with vector field readout and manufacturability. We design novel
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, new measurements and ways for realization of efficient/high-performance electro-optical devices integrable to photonic and electronic circuitries. We offer a collaborative environment that couples
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with strain engineered into the channel to improve carrier mobility while residual strains from manufacturing processes can lead to mechanical failures. Similarly, quantum computing architectures use
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NIST only participates in the February and August reviews. There is a growing need for high-performance materials for various technological applications. To address this need, the NIST-JARVIS (https