KLOUDY / qpu
Quantum randomness. Classical security. Measured together.
Kloudy’s QPU research explores adding quantum-generated randomness to classical security and automated inspection. Unpredictable exploration can inspect places a predictable scanner would miss. The record below highlights measured catches and earlier dormant-actor detection alongside the classical controls and statistical context. It does not establish quantum superiority or deployed protection.
Research record · Aggregate findings only. No QPU connection is needed to read these pages.
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Unpredictable exploration. Measured results.
QPU vs OS catches in the final scripted trajectory; 121 actors. Paired p = 0.0759.
The QPU arm caught the dormant actor at step 18; the OS arm at step 29. One dormant actor, one trajectory.
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.
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.
Less setup. More useful work.
For IDEs and bots: one CLI, one MCP, tools appear when needed.
Find with SEO/GEO, read FHIR for medical data or KLDY for other information, then select one scoped Toolbox tool when action is needed.
Passive local reads use no model calls. Narrowing 100 candidate definitions to 10 would mean 90% fewer definition fetches in that example; this is an illustration, not measured token savings.
An additional source of unpredictability
Quantum entropy can complement classical randomness as a source-diversification approach. Automated inspection follows unpredictable choices instead of a fixed, easily anticipated route. These experiments evaluate that idea; the public browser does not call a QPU or supply vault machinery.
Protect the whole path
No compact generation seed was exposed by the quantum source in the experiment. The proper OS cryptographic source also exposed no application-visible state to clone. Future output must still be protected: copying a stored schedule defeats unpredictability regardless of its source.
Measure the claim
An added randomness source is not quantum-level encryption of stored data and does not prove resistance to all quantum attacks. Equal-budget classical controls, uncertainty and independent repetitions matter. The tracker publishes the measured comparisons so the useful observations can be checked.