Agent objective
- Interact with the supplied stateful environment.
- Produce verifier-checkable actions or artifacts.
- Maximise scalar reward under the package contract.
Five quantum-information environments that require complete experimental protocols rather than chasing the largest immediate signal. They span non-Markovian processes, open-system generators, many-body phases, fault-tolerant noise, and network nonlocality, combining mechanism identification, continuous parameter recovery, calibration, constrained sequencing, credible intervals, and prediction on sealed experiments.
Five quantum-information environments that require complete experimental protocols rather than chasing the largest immediate signal. They span non-Markovian processes, open-system generators, many-body phases, fault-tolerant noise, and network nonlocality, combining mechanism identification, continuous parameter recovery, calibration, constrained sequencing, credible intervals, and prediction on sealed experiments.
Enough detail to understand the intellectual terrain; generated instances, hidden mechanisms, and solution paths remain inside the private package.
| Environment | Mathematical or technical frontier | Adaptive research problem |
|---|---|---|
| ProcessTensorCausalDiscovery | Multi-time processes and non-Markovian memory | Sequence causal breaks, echoes, and multi-time probes to separate memory, initial correlation, and drifting-control explanations. |
| LindbladianGaugeHunter | Open-system generators and SPAM gauge freedom | Calibrate the laboratory frame before combining coherent, dissipative, and complete-positivity measurements. |
| ManyBodyShadowPhaseAuditor | Classical shadows and many-body phases | Identify globally different six-qubit phases through high-weight and nonlinear observables despite identical one-qubit marginals. |
| FaultTolerantNoiseForensics | Quantum error correction and temporal noise | Change compiler and fault-path geometry to distinguish rate-matched leakage, coherent, correlated, and persistent faults. |
| NetworkNonlocalitySelfTester | Bilocal networks and loss-robust self-testing | Combine calibrated nonlinear witnesses, interference, and inflation-style constraints beyond ordinary pairwise Bell tests. |
The supplied TESTED_COMPLETE archive is validation evidence, not an external model score: 103/103 tests, all five policy-separation checks and fixture replays, API and wheel checks, and a 250-episode calibration reproduced exactly. That calibration is revealing: a one-step greedy reference passed 0/50 expert episodes, while the staged protocol-aware reference passed 50/50. It validates that sequencing, not merely likelihood access, is load-bearing.
We publish aggregate behavior and task structure, while withholding generated instances, hidden labels, exact successful probes, private checks, and solution trajectories.
Shown with its provenance and limitations; it is not a performance guarantee.
The TESTED_COMPLETE archive is package-validation evidence, not an external model benchmark: 103/103 pytest tests passed, all five deterministic fixture replays matched, the 250-episode expert calibration reproduced exactly, and every recorded validation check passed.
As identified by the supplied artifact.
See the source methodology.
Ulam_RLVR_Quantum_Information_Tasks_v2.0.0_TESTED_COMPLETE.zip · VALIDATION_SUMMARY.json
Machine-readable provenance and the exact displayed metric are available in results.json.
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Package SHA-256
a0a18628811b9f44f3d4b664c121fc02a0a4b85c834acd4f439ec6945686d318One purchase licenses this identified item to one legal organisation for worldwide, perpetual commercial model training, evaluation, research and development. Redistribution and resale of the package are not permitted.