GitHub - PrometheusDynamicsCanada/ibm-quantum-telemetry: Raw hardware verification ledger, Primitive Unified Blocs (PUBs), and statistical variance metrics for the Prometheus compiler engine. · GitHub
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Prometheus Quantum Compiler: Empirical Telemetry & Hardware Benchmarks
The Topological Routing Anomaly
This repository contains the empirical hardware telemetry evaluating a novel quantum routing architecture (Prometheus). The data documents a sustained physical anomaly that challenges the current Noisy Intermediate-Scale Quantum (NISQ) consensus.
Standard heuristic compilers (e.g., SABRE) optimize strictly for minimum physical depth, operating on the premise that 2-qubit operations (SWAP gates) introduce local depolarizing noise, and thus, physical gate depth correlates negatively with quantum state fidelity.
The Observed Anomaly: Our telemetry suggests that physical gate depth alone is not a sufficient predictor of computational degradation. Prometheus intentionally incurs massive physical depth penalties (inserting hundreds of additional SWAP gates to preserve global entanglement topologies), yet consistently yields lower output entropy and extracts stronger dominant signal peaks than shallow comparator circuits.
The Working Hypothesis: Preserving global entanglement structure and mathematically routing through specific hardware topologies may outweigh the local fidelity costs introduced by additional routing operations.
Zero-Trust Methodology & Air-Gapped IP
The proprietary routing heuristics and tensor matrices of the Prometheus compiler are strictly air-gapped pending patent protection. We do not provide API access, black-box modules, or compiler binaries. Instead, institutional review is conducted exclusively via zero-trust auditing. We have provided the raw hardware telemetry, unmodified IBM job-result.json payloads, transpiled OpenQASM circuits, and mathematical extraction tools for independent verification of the physical phenomena. Reviewers are invited to parse the payloads using their own extraction logic.
Key Empirical Evidence
All executions were performed on the 156-qubit superconducting Heron architecture (ibm_fez and ibm_kingston). Control pipelines were strictly limited to IBM native compilation at Optimization Level 3 without readout error mitigation, exposing pure hardware behavior.
1. Deep-Scaling Matrix (200 Continuous Executions)
To definitively rule out statistical anomalies or temporal calibration drift, we mapped 200 continuous, perfectly interleaved executions to observe the correlation between extreme gate depth and state preservation.
(Note: Visual representation of prometheus_telemetry.csv. Notice the clustering anomaly: Prometheus incurs ~1,000 extra physical routing gates yet consistently yields lower output entropy than the shallow SABRE benchmark.)
2. Algorithm-Agnostic Peak Extraction
Reference Job IDs: d83f31ugbeec73amsoig vs. d83c1pg0bvlc73d38p2g
Rather than focusing solely on theoretical noise bounds, this baseline 5-qubit asymmetrical EfficientSU2 execution isolates the compiler's ability to extract the intended dominant signal (the 00000 ground state) from the background noise floor.
Compiler Pipeline<br>Target Signal State<br>Target Extraction (Shots)<br>Top-5 State Retention
SABRE (Level 3)<br>00000<br>Failure to isolate<br>688 / 2000 shots
Prometheus Engine<br>00000<br>915 / 2000 shots<br>1861 / 2000 shots
3. The Live QFT-8 Blind Test
Reference Job IDs: d8o0o1jqv2lc7389ev00 vs. d8o0o23qv2lc7389ev1g
Executed on a randomized, LLM-generated QFT-8 circuit. Prometheus absorbed a 4.4x SWAP penalty while successfully isolating the dominant signal peak.
Metric<br>SABRE (Level 3)<br>Prometheus Engine<br>Delta / Impact
Physical Depth<br>200 gates<br>893 gates<br>+ 4.4x Penalty
Shannon Entropy<br>7.7090 bits<br>7.7317 bits<br>+ 0.02 bits (No meaningful separation observed)
Top State Peak<br>46 shots<br>68 shots<br>+ 47% True Signal Extraction
4. Extreme Volumetric Testing (100,000 Shots)
To ensure the signal retention was not a localized anomaly, the engine was subjected to extreme physical depths and continuous execution loads.
Algorithm<br>Qubits<br>Compiler<br>Physical Depth<br>Shannon Entropy<br>KL Divergence<br>XEB
QFT<br>SABRE...