A proposed chip-scale device combines a transmon qubit, SQUID, and nanomechanical resonator to achieve projected gravitational sensitivity of 100-1000 nGal per square root Hz with sub-millisecond interrogation times.
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Identifies a zero-temperature spin relaxation channel via gyromagnetic coupling to Rayleigh vorticity that is super-Ohmic and depth-dependent, distinct from Raman processes.
Protocols for generating quantum resources can simultaneously charge quantum batteries with a collective advantage, enabling dual-use superconducting hardware for sensing or energy storage.
Warm 85Rb vapor produces high-flux twin beams with 5.5 dB squeezing and individual photon-number squeezing via near-degenerate SFWM at 795 nm, with flat-topped temporal correlations.
citing papers explorer
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Chip-scale superconducting quantum gravimeter combining a SQUID, a transmon, and a nanomechanical resonator
A proposed chip-scale device combines a transmon qubit, SQUID, and nanomechanical resonator to achieve projected gravitational sensitivity of 100-1000 nGal per square root Hz with sub-millisecond interrogation times.
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Gyromagnetic Quantum Friction in Rayleigh Vorticity Baths
Identifies a zero-temperature spin relaxation channel via gyromagnetic coupling to Rayleigh vorticity that is super-Ohmic and depth-dependent, distinct from Raman processes.
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Dual-use quantum hardware for quantum resource generation and energy storage
Protocols for generating quantum resources can simultaneously charge quantum batteries with a collective advantage, enabling dual-use superconducting hardware for sensing or energy storage.
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High-flux sub-Poissonian twin-beam generation from warm atomic vapor
Warm 85Rb vapor produces high-flux twin beams with 5.5 dB squeezing and individual photon-number squeezing via near-degenerate SFWM at 795 nm, with flat-topped temporal correlations.
- Sequential Spatiotemporal Magnetic-Field Reconstruction via Quantum Hamiltonian Learning with NV-Center Spin-1 Hamiltonians