A single multimode resonator enables unconditional qubit reset below 1% residual excitation in 220 ns and selective leakage reduction to 6.1% |f> population in 62 ns, with intrinsic Purcell protection preserving relaxation times despite direct coupling.
Title resolution pending
4 Pith papers cite this work. Polarity classification is still indexing.
citation-role summary
citation-polarity summary
fields
quant-ph 4verdicts
UNVERDICTED 4roles
background 1polarities
unclear 1representative citing papers
A 3D integrated transmon system achieves 99.87% single-qubit and 97.5% CZ gate fidelities with interchip entanglement, showing vertical tunable couplers enable scalable superconducting quantum processors.
Quantum teleportation of coherent states achieved over a thermal microwave network at up to 4 K with fidelities of 72.3% at 1 K and 59.9% at 4 K exceeding thresholds.
Non-Markovian thermal reservoirs generate stationary entanglement between distant qubits via a quasiadiabatic dark state.
citing papers explorer
-
Multimode Purcell Filter for Superconducting-Qubit Reset and Readout with Intrinsic Purcell Protection
A single multimode resonator enables unconditional qubit reset below 1% residual excitation in 220 ns and selective leakage reduction to 6.1% |f> population in 62 ns, with intrinsic Purcell protection preserving relaxation times despite direct coupling.
-
Breaking the scalability barrier via a vertical tunable coupler in 3D integrated transmon system
A 3D integrated transmon system achieves 99.87% single-qubit and 97.5% CZ gate fidelities with interchip entanglement, showing vertical tunable couplers enable scalable superconducting quantum processors.
-
Quantum teleportation over thermal microwave network
Quantum teleportation of coherent states achieved over a thermal microwave network at up to 4 K with fidelities of 72.3% at 1 K and 59.9% at 4 K exceeding thresholds.
-
Non-Markovian thermal reservoirs for autonomous entanglement distribution
Non-Markovian thermal reservoirs generate stationary entanglement between distant qubits via a quasiadiabatic dark state.