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KLOUDY / quantum

Quantum security research, in the open.

Track Kloudy’s quantum-security experiments through dated aggregate results. Compare QPU, hybrid and OS catch rates, dormant-actor detection and predictability results. The table includes both trajectories, classical controls, sample sizes and paired p-values. It is a saved research record, not live protection or an established quantum-advantage claim.

Research record · Aggregate findings only. No QPU connection is needed to read these pages.

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64 vs 50

QPU vs OS catches in the final scripted trajectory; 121 actors. Paired p = 0.0759.

11 steps earlier

The QPU arm caught the dormant actor at step 18; the OS arm at step 29. One dormant actor, one trajectory.

34 additional catches

Caught by QPU and missed by OS in that trajectory. OS also caught 20 actors that QPU missed.

Hardware-backed research in a scripted simulation. These are measured observations, not a claim of deployed protection or established quantum superiority. The final QPU/OS paired p-value is 0.0759. At the 5% threshold, a significant difference is not established. The equal-budget control caught 92; the hybrid caught 85.

Dated catch results

n is the number of actors in a scripted world, not independent experiments. There are two trajectories: all pre-annotation comparisons share the first; all final comparisons share the second. Six comparison rows do not mean six independent runs. Dates are the report completion date. “Higher catch” means the quantum-containing arm caught more; it does not mean a proven quantum advantage.

Adaptive attacker simulation · both trajectories, all arms and available paired comparisons
Reported / comparisonRuns / n / attacker setClassical catch rateQuantum-containing catch ratePaired p-valueFinding
2026-09-29
Pre-annotation
1 / 120
One scripted world; 120 moving actors
OS: 51.7% (62/120)QPU: 51.7% (62/120)1Higher catch: No.
Significant difference: No.
Matched inspection budget.
Quantum advantage: Not established.
2026-09-29
Pre-annotation · unequal budget
1 / 120
One scripted world; 120 moving actors
OS: 51.7% (62/120)OS + QPU: 85.8% (103/120)Not reportedHigher catch: Yes.
Significant difference: Not reported.
Twice the classical arm’s inspection budget.
Quantum advantage: Not established.
2026-09-29
Pre-annotation · matched budget
1 / 120
One scripted world; 120 moving actors
Dual OS: 82.5% (99/120)OS + QPU: 85.8% (103/120)Not reportedHigher catch: Yes.
Significant difference: Not reported.
Matched inspection budget.
Quantum advantage: Not established.
2026-09-29
Final annotated
1 / 121
One scripted world; 120 moving actors and one dormant actor
OS: 41.3% (50/121)QPU: 52.9% (64/121)0.0759Higher catch: Yes.
Significant difference: No.
Matched inspection budget.
Quantum advantage: Not established.
2026-09-29
Final annotated · unequal budget
1 / 121
One scripted world; 120 moving actors and one dormant actor
OS: 41.3% (50/121)OS + QPU: 70.2% (85/121)0.0000021Higher catch: Yes.
Significant difference: Yes.
Twice the classical arm’s inspection budget.
Quantum advantage: Not established.
2026-09-29
Final annotated · matched budget
1 / 121
One scripted world; 120 moving actors and one dormant actor
Dual OS: 76.0% (92/121)OS + QPU: 70.2% (85/121)0.3604Higher catch: No.
Significant difference: No.
Matched inspection budget.
Quantum advantage: Not established.

Unpredictability experiment

Reported 2026-09-29. Each source was evaluated on 2048 held-out selections. These are attacker prediction accuracies, not catch rates; lower is better. QPU, hybrid and OS sources all passed the study’s predictability criteria. This experiment did not establish an advantage over the OS source.

Randomized audit · all source variants
SourceFrequency attackerFirst-order attacker
Fixed6.25%100%
Weak PRNG6.396%6.787%
Windows CSPRNG6.494%5.859%
QPU-direct6.982%6.641%
Hybrid6.152%5.615%

The fixed and deliberately compromised weak-generator controls were predictable under their informed attacks. That does not describe a properly used OS cryptographic source. A stolen precomputed schedule is readable regardless of its origin.

What the lab still needs to establish

Independent attacker populations, repeat runs and production traffic are still needed. The main simulated scanner’s flagged-clean rate was too high for operational alerts. No quantum advantage or live network enforcement is established by this snapshot. The QPU stays off the browser’s production request path.

How the research fits Kloudy security → · Security care →

Follow the evidence

Download the imported aggregate record (JSON) · Full QVault-Test research record (repository access required) ↗

The download contains all four arms from both catch trajectories and the five main prediction variants from the two imported experiment reports, report fingerprints and the source revision. Other lab experiments are outside this snapshot. No raw measurements, credentials or implementation details are published.

Results last updated: . This is a saved research snapshot, refreshed during releases. It remains readable if the lab or refresh service is unavailable; it is not a live QPU status monitor.

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