Design model-based controls
Design control solutions for optimal or noise-robust performance on arbitrary quantum systems using model-based optimization methods
How to optimize controls in arbitrary quantum systems using graphs
Highly-configurable non-linear optimization framework for quantum control
How to optimize controls with nonlinear dependences
Incorporate nonlinear Hamiltonian dependences on control signals
How to optimize controls on large sparse Hamiltonians
Efficiently perform control optimization on sparse Hamiltonians
How to optimize controls robust to strong noise sources
Design controls that are robust against strong time-dependent noise sources with stochastic optimization
How to add smoothing and band-limits to optimized controls
Incorporate smoothing of optimized waveforms
How to optimize controls using gradient-free optimization
Perform graph-based optimizations when gradients are costly
How to optimize controls with time symmetrization
Incorporate time symmetry into optimized waveforms
How to find time-optimal controls
Optimizing over the duration of your controls
How to optimize controls using arbitrary basis functions
Create optimized controls from superpositions of basis functions
How to create dephasing and amplitude robust single-qubit gates
Incorporate robustness into the design of optimal pulses
How to create leakage-robust single-qubit gates
Design pulses that minimize leakage to unwanted states
Tune optimization hyperparameters
Learn how to tune optimization hyperparameters in Boulder Opal
Estimate noise resilience
Learn how to estimate noise resilience in Boulder Opal