🔥 Finally, our new coupling approach achieves high-efficiency photon delivery into the cavities and waveguides of choice, from outside the vacuum chamber!
🔗 For more details, see our paper: https://t.co/RtNpOdmxmq
@UChicago@UChicagoPME@ChicagoQuantum
🚀 Our latest @NatureComms paper combines atom arrays with a photonic chip containing 💯s of nanophotonic cavities, enabling a new paradigm for multiplexed networking 🌐 and quantum computing ⚛️
We are excited to share our latest results on using co-located spectator qubits to correct correlated phase errors on data qubits! https://t.co/QUaTv8vEfn
Our quantum processor is a dual-species array of rubidium and cesium atoms! The large separation in the resonances of the two species leads to negligible bit-flip error from readout crosstalk, estimated to be <10⁻¹¹, which enables these advances.
We are excited to share our latest results on using co-located spectator qubits to correct correlated phase errors on data qubits! https://t.co/QUaTv8vEfn
For our experiment, we developed new tools for atom arrays: mid-circuit readout, real-time in-sequence feedback, and reloading of spectator qubits while maintaining the coherence of data qubits.