Application notes

See how we have applied Boulder Opal to solve major challenges in the field

Superconducting quantum computing

Increasing robustness against dephasing and control noise using Boulder Opal pulses

Increasing robustness against control noise using Boulder Opal pulses

Increasing robustness against crosstalk in a two-qubit entangling operation

Hamiltonian-agnostic rapid tune-up of an arbitrary unitary on a qutrit

Engineering fast, leakage-free gates in superconducting cavity-qubit systems

Engineering fast cavity state generation in superconducting cavity-qubit systems

Generating single flux quantum gates robust to leakage and frequency drift

Reconstructing noise power spectrum density in transmon qubits using dynamical decoupling sequences

Obtaining control solutions for parallel and specifiable multi-qubit gates using Boulder Opal pulses

Obtaining control solutions for two-qubit gates with modulation of the confining potential

Generating high-fidelity GHZ states using Boulder Opal pulses

Using Boulder Opal to improve two-qubit controlled-Z gates for cold atoms

Using Boulder Opal spectrum reconstruction tools to perform provably optimal leakage-free sensing with spectrally concentrated Slepian pulses

Using Boulder Opal robust Raman pulses to boost fringe contrast in tight-SWAP cold atom interferometers by an order of magnitude

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