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Discover how Boulder Opal can help you solve the toughest challenges across hardware systems with complete code-based solutions
Superconducting systems
Learn how Boulder Opal can be applied to superconducting systems
Learn to simulate with the superconducting system module
Engineering and simulating gates in superconducting transmon-cavity systems
Design noise-robust single-qubit gates for IBM Qiskit
Increasing robustness against dephasing and control noise using Boulder Opal pulses
Design noise-robust single-qubit gates for Rigetti Quil-T
Increasing robustness against control noise using Boulder Opal pulses
Perform model-based robust optimization for the cross-resonance gate
Increasing robustness against crosstalk in a two-qubit entangling operation
Demonstrate SU(3) gates on superconducting hardware
Hamiltonian-agnostic rapid tune-up of an arbitrary unitary on a qutrit
Design fast optimal SNAP gates in superconducting resonators
Engineering fast, leakage-free gates in superconducting cavity-qubit systems
Perform optimal Fock state generation in superconducting resonators
Engineering fast cavity state generation in superconducting cavity-qubit systems
Design error-detectable entangling gates for superconducting resonators in dual-rail encoding
Robust $ZZ_\Theta$ gate with a transmon ancilla engineered using Boulder Opal
Design error-robust digital SFQ controls for superconducting qubits
Generating single flux quantum gates robust to leakage and frequency drift
Perform noise spectroscopy in superconducting hardware
Reconstructing noise power spectrum density in transmon qubits using dynamical decoupling sequences
Trapped-ion quantum computing
Learn how Boulder Opal can be applied to trapped-ion quantum computing
Learn to optimize Mølmer–Sørensen gates for trapped ions
Creating optimal operations with the trapped ions module
How to calculate system dynamics for arbitrary Mølmer–Sørensen gates
Calculate the Mølmer–Sørensen gate evolution characteristics for trapped ions
How to optimize Mølmer–Sørensen gates for a multitone global beam
Creating efficient gates for trapped ions without individually addressing the ions
How to optimize error-robust Mølmer–Sørensen gates for trapped ions
Efficient state preparation using Mølmer–Sørensen-type interactions
Design robust, configurable, parallel gates for large trapped-ion arrays
Obtaining control solutions for parallel and specifiable multi-qubit gates using Boulder Opal pulses
Design robust Mølmer–Sørensen gates with parametric trap drive amplification
Obtaining control solutions for two-qubit gates with modulation of the confining potential
Rydberg-atom quantum computing
Learn how Boulder Opal can be applied to Rydberg-atom quantum computing
Generate highly-entangled states in large Rydberg-atom arrays
Generating high-fidelity GHZ states using Boulder Opal pulses
Design robust Rydberg blockade two-qubit gates in cold atoms
Using Boulder Opal to improve two-qubit controlled-Z gates for cold atoms
Improve Z2 state generation by 3X on QuEra's Aquila QPU
Deployment of Boulder Opal optimal pulses to increase the fidelity of state preparation in a cold atom cloud quantum computer hardware
Spin-qubit quantum computing
Learn how Boulder Opal can be applied to spin-qubit quantum computing
Quantum sensing
Learn how Boulder Opal can be applied to quantum sensing
Design robust pulses for widefield microscopy with NV centers
Increasing detection area by $>10\times$ using $\pi$ pulses robust to field inhomogeneities across large diamond chips
Perform narrow-band magnetic-field spectroscopy with NV centers
Using Boulder Opal spectrum reconstruction tools to perform provably optimal leakage-free sensing with spectrally concentrated Slepian pulses
Boost signal-to-noise by 10X in cold-atom sensors using robust control
Using Boulder Opal robust Raman pulses to boost fringe contrast in tight-SWAP cold atom interferometers by an order of magnitude
