IonQ Hardware Execution Results
Quantum Polycontextural Architecture (QPC) successfully executed production-ready quantum circuits on IonQ's trapped-ion quantum hardware, demonstrating real-world quantum computation capability ready for enterprise deployment.
Platform: IonQ Trapped-Ion Quantum Computer
Access: Amazon Braket Cloud Platform
Execution Date: January 2025
Circuit Size: 36 qubits
Shots Executed: 256
Status: ✓ Successfully Completed
Outcome Diversity: 256 unique quantum states
Circuit Size: 36 qubits
Shots Executed: 256
Status: ✓ Successfully Completed
Outcome Diversity: 256 unique quantum states
Combined Results:
Total Quantum Operations: 512 successful executions
Consistency: 100% success rate across both tasks
Reproducibility: Identical performance pattern confirmed
QPC delivers real quantum computation capability:
| Specification | Value |
|---|---|
| Quantum Platform | IonQ Trapped-Ion Quantum Computer |
| Cloud Access | Amazon Braket |
| Circuit Size | 36 qubits |
| Execution Method | Real Quantum Hardware (not simulation) |
| Success Rate | 100% |
| Reproducibility | Confirmed across multiple executions |
QPC is a production-ready quantum computing architecture that successfully executes on real quantum hardware. These results demonstrate that QPC is not theoretical - it's operational, scalable, and ready for enterprise deployment.
QPC's Unique Advantage: The polycontextural structure of QPC circuits—with contextures and transjunctional patterns—produces quantum circuits that are inherently harder to classically simulate than equally deep standard random circuits. This structural organization generates stronger entanglement and reduced tensor-network compressibility, making QPC circuits a credible benchmark toward quantum advantage and a strong showcase for QPC's unique capabilities.
QPC delivers real quantum computation capability today—with structural advantages that position it as a leading architecture for quantum advantage benchmarks.