OCI-S is to quantum circuits what Dolby is to audio — a transparent enhancement layer. Submit any QASM circuit, get back an OCI-S-stabilized version. Works on IBM, IonQ, any hardware. No code changes. No extra hardware.
Trusted by quantum teams at leading research institutions
Move the slider to see the impact across different workload sizes.
Real quantum processors experience decoherence, gate errors, and calibration drift that cause execution results to vary wildly — even across identical circuits run seconds apart. Up to 28% of production jobs fail catastrophically.
Identical circuits produce radically different results between runs, making production deployment unreliable.
A significant fraction of jobs return near-zero fidelity, wasting expensive hardware time and engineer resources.
Teams resort to running each circuit multiple times and discarding bad results — multiplying cost with no systematic fix.
Dolby doesn’t change your recording equipment. It adds an invisible layer that makes every recording sound better. OCI-S does the same for quantum circuits: your QASM goes in, an OCI-S-enhanced QASM comes out. You run it on your hardware as usual.
OPENQASM 2.0;
qreg q[2];
h q[0];
cx q[0],q[1];
OPENQASM 2.0;
// OCI-S enhanced
qreg q[2];
qreg anc[1];
h q[0]; ...
OCI-S reaches the target state in exactly one round for any initial state. Not gradual correction — instant projection. Proven analytically and on IBM hardware.
Standard QASM in. Standard QASM out. Works with Qiskit, Cirq, OpenQASM 2.0, and any framework that produces or consumes QASM circuits.
Stabilization parameters are computed server-side and never exposed. Your circuits benefit from OCI-S without you needing to understand the math.
Every metric below comes from actual IBM Quantum jobs — 30 hardware runs across Kingston, Marrakesh, and Fez. No simulated claims.
OCI-S clamps output variance to near-zero. Identical circuits produce consistent results run after run — 109x improvement vs bare baseline on Kingston.
Analytically proven: OCI-S reaches the target state in exactly one round. Extra rounds compensate inter-round hardware noise. Not gradual — instantaneous.
LiH energy error reduced 101x at 500µs idle — from 2.89 Ha to 0.028 Ha. OCI-S at 5×T₂ achieves better accuracy than unprotected circuits at zero idle. QAOA crossover confirmed at 25µs.
Use the REST API directly, or wait for the Python SDK — pip install qiskit-ocis launching soon. OCI-S fits into your existing Qiskit, Cirq, or OpenQASM pipeline without refactoring.
POST your QASM to /api/v1/transform and get enhanced QASM back. JSON in, JSON out. Authentication via API key header.
Drop-in Qiskit transpiler pass. OCI-S runs as a standard transpilation step — no API calls visible in your code.
Embed OCI-S directly into your quantum platform. White-label SDK, FRAND licensing, SLA guarantees. Contact us for terms.
Every plan includes the full OCI-S stabilization engine. Upgrade as your usage grows — or contact us for enterprise and OEM licensing.
Quantum computing’s biggest barrier to production adoption isn’t qubit count — it’s execution reliability. OCI-S bridges that gap today, on current NISQ hardware.
Validate your quantum workload on real IBM Quantum hardware before committing to full deployment. 30 real hardware jobs, 0 regressions.
PDF reports with executive summaries, statistical charts, and methodology notes — ready for stakeholder review and investor diligence.
Seeded circuits and raw CSV data make every result reproducible and auditable. Patent pending USPTO #64/050,726 & #64/069,385.
Built from day one for enterprise quantum teams that handle sensitive workloads and regulated data.