Mid-circuit operations using the omg-architecture in neutral atom arrays
arXiv:2305.19266
Abstract
We implement mid-circuit operations in a 48-site array of neutral atoms, enabled by new methods for control of the (optical-metastable-ground state qubit) architecture present in Yb. We demonstrate laser-based control of ground, metastable and optical qubits with average single-qubit fidelities of , and . With state-sensitive shelving between the ground and metastable states, we realize a non-destructive state-detection for Yb, and reinitialize in the ground state with either global control or local feed-forward operations. We use local addressing of the optical clock transition to perform mid-circuit operations, including measurement, spin reset, and motional reset in the form of ground-state cooling. In characterizing mid-circuit measurement on ground-state qubits, we observe raw errors of on ancilla qubits and on data qubits, with the former (latter) uncorrected for () preparation and measurement error; we observe similar performance for mid-circuit reset operations. The reported realization of the architecture and mid-circuit operations are door-opening for many tasks in quantum information science, including quantum error-correction, entanglement generation, and metrology.
Cited by in corpus (10)
- Logical quantum processor based on reconfigurable atom arrays
- Multi-qubit gates and Schrödinger cat states in an optical clock
- A dual-species Rydberg array
- Universal quantum operations and ancilla-based readout for tweezer clocks
- Fast single atom imaging for optical lattice arrays
- Emergent Gauge Theory in Rydberg Atom Arrays
- A scaled local gate controller for optically addressed qubits
- An architecture for two-qubit encoding in neutral ytterbium-171 atoms
- Quantum memory at nonzero temperature in a thermodynamically trivial system
- Mantra: Rewriting Quantum Programs to Minimize Trap-Movements for Zoned Rydberg Atom Arrays