Proposal for a tunable, DDI-resilient controlled-phase gate in polar molecules using global microwave pulses and motional-mode separation, with predicted fidelity over 0.9999.
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A new optimal-control scheme achieves high-fidelity two-qubit iSWAP gates for Rydberg atoms at separations exceeding 20 micrometers through coherent excitation-exchange-deexcitation dynamics.
Quantized motion of trapped polar molecules realizes an asymmetric quantum Rabi model and trap-dipole resonance while supporting high-fidelity iSWAP and controlled-phase gates.
OH molecule proposed as quantum probe for joint electric and magnetic field estimation, with optimized stationary and dynamical protocols that address incompatibility and show temperature effects on error.
citing papers explorer
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High-fidelity molecular quantum logic gates resilient to interaction fluctuation
Proposal for a tunable, DDI-resilient controlled-phase gate in polar molecules using global microwave pulses and motional-mode separation, with predicted fidelity over 0.9999.
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Fast Quantum Gates for Neutral Atoms Separated by a Few Tens of Micrometers
A new optimal-control scheme achieves high-fidelity two-qubit iSWAP gates for Rydberg atoms at separations exceeding 20 micrometers through coherent excitation-exchange-deexcitation dynamics.
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Asymmetric quantum Rabi model, trap-dipole resonance, and quantum gates with optically trapped ultracold polar molecules
Quantized motion of trapped polar molecules realizes an asymmetric quantum Rabi model and trap-dipole resonance while supporting high-fidelity iSWAP and controlled-phase gates.
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OH molecule as a quantum probe to jointly estimate electric and magnetic fields
OH molecule proposed as quantum probe for joint electric and magnetic field estimation, with optimized stationary and dynamical protocols that address incompatibility and show temperature effects on error.