The first domain · Quantum control
Any qubit, the same loop.
The first domain runs the same loop across every major kind of qubit — swap the hardware, keep the loop.
Autonomous research needs a physical system that outruns its models, a score only the hardware can settle, and experiments fast enough to turn the loop thousands of times a day. Quantum control is all three. This is where we start. The loop, and where it goes next
Cat Qubits
The challenges
Cat qubits store quantum information in a way that naturally resists one common type of error. Our methods design the driven and dissipative operations needed to stabilize and gate them.
- Delicate state preparation and stabilization
- Gate fidelity sensitivity
- Driven-dissipative dynamics stall standard optimizers
- Calibration complexity increases with scale
Harmoniqs Piccolo Ecosystem
- Designs pulses for the driven-dissipative dynamics that define cat qubits
- Treats engineered dissipation as a hard requirement, not an afterthought
- Handles the time-varying drives that cat-qubit gates require
- Gate synthesis validated on superconducting cavity hardware in partnership with NYU
Our methods don’t assume anything about the specific hardware they’re controlling. The same solver that handles transmon handles Rydberg, ion trap, and bosonic — with no per-platform tuning.
One core, every platform. Transmon, fluxonium, neutral atom, silicon spin, trapped ion, bosonic — all from the same software, one loop closing on whatever hardware you run — and ready to carry to the next domain.