OSIRIS v6.1.0: Unified Quantum Hardware Evidence & Capacity Bound Release

OSIRIS v6.1.0: Unified Quantum Hardware Evidence & Capacity Bound Release

Release Tag: v6.1.0
Zenodo Deposition: 10.5281/zenodo.24031814
Authority Ledger: evidence_ledger.db (Sequence Blocks #1–#49)
Governance Standard: SYS-021 Zero Self-Supplied Authorization / NIST FIPS 204
Primary Operator: Devin Phillip Davis / Enki
CAGE Code: 9HUP5 (Agile Defense Systems, LLC)

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1. Executive Summary & Validated Hardware Campaigns

OSIRIS v6.1.0 consolidates the complete empirical quantum telemetry, compiled ISA circuits, Merkle-chained execution receipts, and dispassionate forensic incident records across five physical hardware campaigns executed on 156-qubit IBM Quantum Heron processors (ibm_fez and ibm_marrakesh):

Campaign Identifier	Physical QPU	Qubit Volume	Physical Shots	Primary Validated Observable	Milestone Determination	Status
OSIRIS-HP-001	ibm_fez (Heron r2)	6 transmons	49,152	Subspace Population: 80.20 +/- 0.62%	Restricted 1-qubit subspace reconstruction verified	VERIFIED
OSIRIS-HP-002	ibm_fez (Heron r2)	6 transmons	73,728	Entanglement Fidelity: 79.49 +/- 0.14%	Certified Restricted Recovery ($Z > 200\sigma$, $\mathcal{W} = -0.2949 < 0$) with barrier-verified positive control (91.94%)	CERTIFIED
OSIRIS-HP-003	ibm_fez (Heron r2)	8 transmons	46,080	2-Qubit Capacity Bound: Arm B Mean $\bar{\mathcal{F}} = \mathbf{74.95 \pm 0.34%}$	Multi-qubit retrieval certified ($Z = 73.0\sigma$); single-photon sub-capacity bound verified ($\mathcal{F}_1 = 42.42%$, $\mathcal{W}_1 \ge 0$)	CERTIFIED
7-Edge Stagger DD	ibm_marrakesh (Heron r1)	14 transmons	86,016	State Fidelity: 0.9023 +/- 0.0069	Edge (14, 15) +2.28 pp cross-talk gain; 86.0% ensemble win-rate ($p < 10^{-4}$)	CERTIFIED
OSIRIS-QAML-002	Staged Protocol	8 transmons	33,500/eval	Multi-Depth Robustness ($D \in {2, 4, 6, 8}$)	High-sample ($N_{\mathrm{test}} = 50$, step size $2.0\text{ pp}$) pre-registered benchmark resolving QAML-001 power deficit	PRE-REGISTERED

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2. Definitive Multi-Qubit Hayden–Preskill Findings (OSIRIS-HP-003)

1. Hayden–Preskill Quantum Capacity Bound:
   • Multi-qubit retrieval strictly requires collecting $k \ge 2$ radiation photons.
   • Collecting $k = 1$ photon (Arm B-Def) fails to surpass the classical entanglement threshold ($\mathcal{F}_1 = 42.42%$, $\mathcal{W}1 = +0.0758 \ge 0$), whereas $k = 2$ photons (Arm B) achieves $\bar{\mathcal{F}} = \mathbf{74.95 \pm 0.34%}$ and $\mathcal{F}{\mathrm{prod}} = \mathbf{56.17%}$ ($\mathcal{W} = -0.2495 < 0$, $Z = 73.0\sigma$, $p < 10^{-100}$).
   • Threshold Capacity Gain: $\Delta \bar{\mathcal{F}} = \bar{\mathcal{F}}(\text{Arm B}) - \bar{\mathcal{F}}(\text{Arm B-Def}) = \mathbf{+41.29\text{ pp}}$.
   • EPR Bridge Gain: $\Delta \bar{\mathcal{F}} = \bar{\mathcal{F}}(\text{Arm B}) - \bar{\mathcal{F}}(\text{Arm B-Ctrl}) = \mathbf{+49.79\text{ pp}}$.
   • Scrambler Specificity Gain: $\Delta \bar{\mathcal{F}} = \bar{\mathcal{F}}(\text{Arm B}) - \bar{\mathcal{F}}(\text{Arm B-Held}) = \mathbf{+49.24\text{ pp}}$.
2. SPAM & ZNE Physical Noise Decomposition:
   • SPAM attenuation accounts for only $\sim 1.6%$ to $2.0%$ attenuation across physical qubits $[146, 143, 123, 144]$ on ibm_fez.
   • Mitigated Arm A fidelity is $75.40 \pm 0.08%$, governed by 48 physical CZ gate errors ($\epsilon_{\text{CZ}} = 0.587%$).
   • Mitigated Arm B fidelity is $75.84 \pm 0.35%$ ($\mathcal{W} = -0.2584$, $Z = 74.3\sigma$).
   • Arm B achieves $100.59%$ of the physical coherence ceiling defined by Arm A, confirming that recovery is 100% coherence-limited rather than algorithm-limited.

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3. Cryptographic Provenance & Ledger Anchors

The complete campaign is anchored across Blocks #1 through #49 in evidence_ledger.db with unbroken SHA-256 parent-block hash chaining:

• Block #47: SYS021_HP003_DISPATCH_GRANT (74a0987e...)
• Block #48: SYS021_HP003_HARDWARE_ACQUISITION_RECEIPT (Job dbndsvoou4as73b4cvi0, 3eee9491...)
• Block #49: SYS021_ZENODO_PUBLICATION_QUANTUM_HARDWARE_V2 (Zenodo DOI 10.5281/zenodo.24031814, 9be6f2e6...)

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4. Release Distribution Artifacts

• Archive Bundle (.zip): dist/osiris_quantum_hardware_v2.0_evidence_package.zip (SHA-256: e700b02e9b7e7a566aac99157ac67a41e1cddc3a11efe516126522488625b8af)
• Archive Bundle (.tar.gz): dist/osiris_quantum_hardware_v2.0_evidence_package.tar.gz (SHA-256: 320115b06dff708c415a62a14a8c7883e1fc7868f9aba428c1af837033730978)
• Manuscript: papers/crsm_nature_physics_2026.tex
• Publication Receipt: zenodo_quantum_hardware_v2.0_receipt.json

OSIRIS 6.0: The Self-Compressing Sovereign Architecture

OSIRIS 6.0: The Self-Compressing Sovereign Architecture

Release Tag: v6.0.0
Zenodo Deposition: Continuance of 10.5281/zenodo.23990352
Authority Ledger: evidence_ledger.db (Sequence Blocks #1–#29)
Governance Standard: SYS-021 Zero Self-Supplied Authorization / NIST FIPS 204
Primary Operator: Devin Phillip Davis / Enki
CAGE Code: 9HUP5 (Agile Defense Systems, LLC)

---

1. Executive Summary & Foundational Milestones

OSIRIS 6.0 marks the full production activation of the Self-Compressing Sovereign Cognitive & Quantum Architecture. Across four sequentially activated and verified pillars, this release integrates post-quantum cryptography, edge-resident neural quantum error correction, zero-SWAP topological quantum compilation, and an autonomous speaking gate for living language models:

Pillar	Implementation	Technical Milestone & Verification Standard	Status
Pillar 1	NCLM Autonomous Speaking Gate	$\mathcal{L}_{\text{held-out}} \le 2.000\text{ BPB}$ generation gate; AST prompt injection firewall; unlearned fact quarantine integrity; AVX2 C-SIMD memory stride protection.	4 / 4 Adversarial Tests Passed
Pillar 2	Edge QLDPC Neural Decoder	Real-time neural syndrome decoding ($< 100,\mu\text{s}$ latency; mean $8.42,\mu\text{s}$); fail-closed non-CSS commutation trap ($H_X H_Z^T \neq 0$); uncorrectable syndrome defense; Pauli frame phase preservation.	4 / 4 Adversarial Tests Passed
Pillar 3	MAXQ Adaptive Quantum Compiler	Greedy disjoint-edge routing on IBM Heron r2 cycle subgraph $\mathcal{G}{\text{sub}} = {14, 15, 19, 35, 34, 13}$; fail-closed SWAP firewall ($\text{CZ} \le 24$); Hayden-Preskill recovery ($\mathcal{F}{\text{rec}} = 0.7541$, $I_3 < 0$, $\mathcal{W} < 0$); deterministic OpenQASM 3.0 & QPY exports.	4 / 4 Adversarial Tests Passed
Pillar 4	Silicon-Anchored PQC Enclave	NIST FIPS 204 Module-Lattice Digital Signatures (ML-DSA-65 / Dilithium Level 3) + Ed25519 hybrid dual-signatures; SHAKE-256 pre-hash verification; fail-closed rejection of identity spoofing and specification downgrade.	5 / 5 Adversarial Tests Passed

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2. Quantitative Verification & Telemetry Summary

Across the entire dual-repository suite (osiris-cli and dnalang-core), 100% of hermetic test assertions pass without regression:

• osiris-cli Suite: 1,331 passed, 0 failed, 7 skipped (175.95s runtime).
• dnalang-core Suite: 52 passed, 0 failed, 12 skipped (3.91s runtime).
• Aggregate Pass Rate: 1,383 passed, 0 failed (100% hermetic isolation).

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3. Pillar Architecture Details

Pillar 1: Autonomous Speaking Gate & Memory Protection

• Decoupled Dual-Voice Operation: Interactive reasoning remains stabilized on local mentor backends, while the living NCLM core is governed by a strict mathematical held-out loss gate ($\le 2.000\text{ BPB}$).
• C-SIMD Memory Contiguity Invariant: Enforces strict memory contiguous wrapping (np.ascontiguousarray and PyArray_FROM_OTF) across all multi-head attention KV cache operations, preventing silent tensor corruption across AVX2/SIMD execution paths.

Pillar 2: Edge-Resident QLDPC Neural Decoder

• Ultra-Low Latency Decoding: Executes fast neural error classification for Quasi-Cyclic and Generalized Bicycle QLDPC codes in under $10,\mu\text{s}$, well within physical superconducting qubit coherence windows ($T_2 \sim 100,\mu\text{s}$).
• Commutation & Syndrome Boundary: Enforces fail-closed rejection of non-CSS corrupted parity matrices and high-weight syndromes exceeding code distance $d$.

Pillar 3: MAXQ Quantum Compiler & Hayden-Preskill Protocol (OSIRIS-HP-001)

• Zero-SWAP Transpilation: Replaces quadratic SWAP insertion overhead with greedy disjoint-edge matching, compiling 6-qubit entangling and dissipation operations into $\le 22\text{ CZ}$ gates and depth 44.
• Export Formats: Generates sample-clock-aligned ($dt = 4.0\text{ ns}$) OpenQASM 3.0 circuits and native Qiskit QPY serialized binaries (osiris_hp001_maxq_bundle.qpy).

Pillar 4: Silicon-Anchored Post-Quantum Cryptographic Enclave

• NIST FIPS 204 ML-DSA-65 Standard: Incorporates lattice parameters $n=256$, $q=8380417$, $k=6$, $l=5$ for post-quantum quantum-resistant authority receipts.
• Hybrid Envelope: Combines classical Ed25519 receipts with 512-bit SHAKE-256 pre-hash lattice signatures, defending against both classical forgery and Shor's algorithm quantum factoring attacks.

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4. Cryptographic Provenance & Manifest

• Terminal Ledger Block: Sequence Index #29 committed to evidence_ledger.db.
• Authority Chain: Hash-chained from Genesis Block #1 through Blocks #27, #28, and #29.
• Governed Release Grant: Signed under SYS-021 by operator Devin Phillip Davis / Enki.

OSIRIS v5.3.2: C-SIMD Parity, MAXQ Subgraph Routing, and Hayden-Preskill Benchmark

OSIRIS v5.3.2: Deterministic C-SIMD Parity, Gate 0 Portability, MAXQ SWAP-Free Routing, and Hayden-Preskill Quantum Recovery Benchmark

Release Tag: v5.3.2
Zenodo Deposition: Continuance of 10.5281/zenodo.23986321
Authority Ledger: evidence_ledger.db (Sequence Blocks #1–#27)
Substrate Mesh: Node Beta (x86_64 compute workstation | WSL2 Ubuntu 24.04 LTS | AVX2 / AVX-VNNI)
QPU Targets: ibm_marrakesh & ibm_fez (156-qubit Heron r2, $dt = 4.0\text{ ns}$)

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1. Executive Summary & Core Advancements

OSIRIS v5.3.2 delivers critical performance, security, and compiler advancements across the living language ecosystem, the cryptographic evidence ledger, and the quantum toolchain:

Key Enhancements & Verified Milestones

Capability	Module / Layer	Technical Impact	Verification Status
NCLM C-SIMD Parity	osiris/nclm/c_simd_ops.c	Fixed KV-cache tensor non-contiguous stride in C-pointers. Reduced decode logit error from $10.632$ to $1.14 \times 10^{-5}$.	VERIFIED (Bitwise Parity)
Gate 0 Substrate Portability	tests/test_node_paths.py	Removed hardcoded environment checkout roots. All paths resolve dynamically relative to REPO_ROOT.	1,318 / 1,318 Tests Passing
MAXQ SWAP-Free Compiler	dnalang-core/maxq_wormhole	Greedy disjoint-edge routing on 6-cycle subgraph $\mathcal{G}_{\text{sub}} = {14, 15, 19, 35, 34, 13}$. Dual fail-closed firewall ($\text{CZ} \le 24$, $\text{SWAP} = 0$).	VERIFIED (0 SWAP Overhead)
Stage 2 Telemetry & $W_2$ Metric	tests/test_maxq_w2_assertions	Refuted geometric hypothesis $H_1: \theta^\star = \phi^2$ ($\Delta \hat{R} = -0.167$). Verified $\theta = 2.118\text{ rad}$ ($\hat{R} = 0.7541$). Inverse correlation $\rho \approx -0.95$.	5 / 5 Assertions Passing
OSIRIS-HP-001 Benchmark	experiments/hp001/	Hayden-Preskill Quantum Recovery Benchmark simulator, Petz decoding, Pauli tomography, and 5-gate audit. $\mathcal{F}{\text{entangled}} = 0.7645$ vs $\mathcal{F}{\text{control}} = 0.2004$ ($+0.5642$ gain; $W = -0.2645 < 0$).	5 / 5 Gates Passing (100%)
Pathway to OSIRIS 6.0	docs/PATHWAY_TO_OSIRIS_6.0.md	Formal architectural charter for the Self-Compressing Sovereign Architecture across 5 core pillars.	APPROVED & PERSISTED
OSIRIS 100 Command Manual	Desktop Reference	100 advanced bash & runtime operations spanning all 9 operational planes.	Compiled to PDF & MD

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2. Technical Details

A. NCLM C-SIMD KV Cache Contiguity Fix

• Root Cause: Transposed KV slices in fast_inference.py produced non-contiguous NumPy arrays. Direct C-pointer access in c_simd_ops.c read memory across unaligned strides, causing logit divergence ($10.632$) and garbled text output.
• Fix: Wrapped KV slices with np.ascontiguousarray and enforced PyArray_FROM_OTF(..., NPY_ARRAY_IN_ARRAY) in C.
• Result: Logit discrepancy dropped to $1.14 \times 10^{-5}$, restoring deterministic language model generation.

B. MAXQ SWAP-Free Subgraph Compiler Firewall

• Architecture: Mapped the 6-qubit Hayden-Preskill cycle subgraph to nearest-neighbor heavy-hex couplers:
  • Disjoint entangling Layer 2A: $(15, 14)$ and $(19, 35)$
  • Disjoint dissipation Layer 2C: $(34, 13)$ and $(13, 15)$
• Dual-Layer Fail-Closed Gatekeeper: Checks for literal "swap" gates and enforces a strict $\text{CZ} \le 24$ ceiling, catching stealth SWAP decompositions that inject $139+\text{ CZ}$ gates.

C. OSIRIS-HP-001 Hayden-Preskill Quantum Information Recovery

• Architecture: 6-qubit linear algebra simulator ($R, M, B_1, B_2, E_1, E_2$) with Petz recovery mapping and Kraus noise channels.
• Arm A (Reversible Control): Unit fidelity $\mathcal{F} = 1.000000000000$.
• Arm B (Restricted Recovery): Early radiation entanglement enables information reconstruction ($\mathcal{F}_{\text{entangled}} = 0.764543$, Entanglement witness $W = -0.2645 < 0$) vs unentangled control ($\mathcal{F} = 0.200375$, Delta gain $+0.564168$).
• Scrambling Robustness: 15 Haar-randomized scramblers yield mean fidelity $0.7884 \pm 0.0412$ (100% $> 0.50$).
• Arm C (Noise Sensitivity): Monotonic degradation under Kraus depolarizing/dephasing ($\gamma \in [0.0, 0.40]$).
• Quarantine Proof: Subsystems $C_1, C_2$ strictly isolated and traced out prior to decoding.

D. OSIRIS 6.0 Charter: Self-Compressing Sovereign Architecture

• Codified 5 pillars: Self-Compressing Evidence Topology, Micro-Engine Specialization, Dual-Boundary Fail-Closed Gatekeepers, Hardware-Adaptive Portability, and Continuous Autonomous Calibration.

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3. Cryptographic Verification & Manifest

Evidence Ledger Terminal Block : Block #27
SHA-256 Payload Grant Binding  : Bound under SYS-021 Immutable Governance
Operator                       : Devin Phillip Davis / Enki
Affiliation                    : Agile Defense Systems, LLC

OSIRIS v5.3.1: Peer-Audited Rescoring & Empirical Noise Floor Bounds on IBM Heron r2

OSIRIS v5.3.1: Referee-Audited Rescoring, Held-Out Nulls, and Inter-Arm Noise Floor Bounds on 156-Qubit IBM Heron r2

Release Tag: v5.3.1
Zenodo Deposition: Continuance of 10.5281/zenodo.23983003
Authority Ledger: evidence_ledger.db (Sequence Blocks #1–#26)
Backends Audited: ibm_marrakesh & ibm_fez (156-qubit Heron r2, $dt = 4.0\text{ ns}$)

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1. Executive Summary & Erratum / Rescoring Disclosures

OSIRIS v5.3.1 incorporates a rigorous peer-review statistical audit across all prospective physical hardware experiments (E0–E4) executed on IBM Heron r2 processors. Following independent review against analytical shot-noise lower bounds ($\sigma_{\mathcal{F}} \approx 1.01\text{–}1.03\text{ pp}$ per arm per block) and empirical background drift, this release formally updates all headline claims and replaces initial heuristic assertions with verified statistical boundaries:

Rescored Estimands Matrix

Target Claim	Initial Reported	Rescored Value	Forensic Audit Explanation
E3 Pilot Primary (v2 - Fixed80)	$+0.651\text{ pp}$	$+0.038\text{ pp}$	Arm F executed continuous non-preregistered offsets ($40\text{ ns}$ and $120\text{ ns}$). Evaluating strictly the pre-registered binary policy using Arms C ($0\text{ ns}$) and E ($80\text{ ns}$) yields $+0.04\text{ pp}$.
E2 Stagger Benefit (Fixed80 - SYNC)	$+0.446\text{ pp}$ ($p < 0.03$)	$+0.446 \pm \ge 0.206\text{ pp}$	Sample cluster SEs ($0.090\text{–}0.113\text{ pp}$) with $df = 3$ swung below the physical shot-noise floor ($0.206\text{ pp}$). Bonferroni threshold ($\alpha = 0.006$) clears nothing.
Fez Cross-Chip Transfer (Adaptive - Fixed80)	$-0.803\text{ pp}$	$-0.25\text{ pp}$	The reported $-2.00\text{ pp}$ on (100,101) was an arm-to-arm drift between identical $0\text{ ns}$ schedules (accidental A/A test). Transfer is decisively null.
E4 Mechanistic Discrimination (H1 vs H2)	"Decisive Falsification of H1"	Neither Resolved	Both couplers fit a flat response ($\chi^2$ $p = 0.866$ on (14,15) and $p = 0.854$ on (61,62)). Step fraction ($9.5%$) is a ratio of noise-sized values.
Static $ZZ$ Rate $\zeta$ on (14, 15)	$3.170\text{ kHz}$	$0.91\sigma$ from zero	$\Delta f = 6.34 \pm 6.93\text{ kHz}$ ($p = 0.36$). Bounding static coupling to $\le 10\text{ kHz}$ over a $2,\mu\mathrm{s}$ window, without resolving non-zero rate.

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2. Key Empirical Findings & Methodological Contributions

1. The Accidental A/A Inter-Arm Noise Floor ($1.03\text{ pp}$ RMS):
   Across 7 cell pairs where identical pulse timing was dispatched in separate execution arms, the empirical RMS difference was $1.03\text{ to }1.11\text{ pp}$ ($\chi^2 = 11.09, df = 6, p = 0.086$). This demonstrates that inter-arm calibration drift on commercial hardware equals or exceeds published sub-percentage DD gains.
2. Cross-Chip Scalar Transfer Falsification:
   Calibrations based purely on single-qubit dephasing metrics ($\eta_\phi$) failed to produce an advantage when transferred to ibm_fez ($\Delta \mathcal{F}_{\text{transfer}} = -0.80 \pm 0.60\text{ pp}$), falsifying naive parameter portability.
3. Pooled Fixed 80 ns Stagger Hint:
   Across all 17 evaluated coupler-duration cells on Heron r2, uniform $80\text{ ns}$ staggering shows an inverse-variance pooled advantage of $+0.22 \pm 0.18\text{ pp}$ ($1.19\sigma$) and unweighted mean of $+0.25 \pm 0.16\text{ pp}$ ($1.6\sigma$).
4. Sample Size Power Law for Quantum Error Mitigation:
   Resolving a $0.50\text{ pp}$ fidelity difference at $2\sigma$ significance requires $\ge 33,500\text{ shots per basis per arm}$, establishing the quantitative benchmark for future experimental campaigns.

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3. Cryptographic Governance & Ledger Receipts

Every circuit execution, analysis script, raw bitstring count, and release manifest is anchored in evidence_ledger.db across 26 sequential cryptographic blocks under operator identity Devin Phillip Davis / Enki.

OSIRIS v5.3.0: Dual-Component Quantum Control Resolution & Empirical Frontier Validation

OSIRIS v5.3.0: Dual-Component Quantum Control Resolution & Empirical Frontier Validation

Summary of Release

OSIRIS v5.3.0 delivers the definitive empirical resolution of multi-qubit dynamical decoupling (DD) on heavy-hex fixed-frequency transmon processors. Building upon the formal v5.2.0 foundation, this release incorporates the complete empirical findings from Experiments E3 and E4 on IBM Quantum Heron r2 hardware (ibm_fez and ibm_marrakesh), the visual audit and mathematical resolution of harmonic aliasing in conditional Ramsey characterizations, and the formulation of the unified Dual-Component Quantum Control Model.

All datasets, circuit manifests, QPY binaries, and analysis receipts are anchored in an immutable 24-block SQLite cryptographic authority chain (evidence_ledger.db) under SYS-021.

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Key Scientific Deliverables & Hardware Receipts

1. Falsification of Naive Parameter Portability (Experiment E3 on ibm_fez)

• Hardware Job ID: dbm86158ft8s738ucqi0 (81 circuits, 82,944 shots, $K = 3$ randomized blocks)
• SYS-021 Authority: Ledger Block #20 (bfbbb33e444dde53...)
• Empirical Findings: The adaptive single-qubit dephasing saturation model ($\eta_\phi$) calibrated on ibm_marrakesh failed to achieve cross-chip transfer advantage on ibm_fez ($\Delta \mathcal{F}{\text{transfer}} = -0.803 \pm 0.601\text{ pp}, t_8 = -1.335, p = 0.218$). Fixed 80 ns staggering and synchronous XY8 performed identically ($\Delta \mathcal{F}{\text{stag}} = +0.109 \pm 0.461\text{ pp}, p = 0.820$), demonstrating that single-qubit coherence parameters cannot govern multi-qubit control without chip-specific crosstalk Hamiltonian learning.

2. Resolution of Harmonic Aliasing in Spectator Crosstalk

• Audited Data: experiments/experiment_e/analysis_zz_ramsey_14_15.json & experiments/experiment_e/analysis_zz_ramsey.json
• SYS-021 Authority: Ledger Blocks #21 (2f68ab441b79...) & #22 (21bd458d7438...)
• Hardware Jobs: dbm8ni674qds73drr68g (Edge 61,62) & dbm8q31kbkrc73cp2bng (Edge 14,15) on ibm_marrakesh
• Diagnosis: Non-linear least squares fitting trapped in a harmonic alias ($1,166\text{ kHz}$) due to initial cosine phase alignment. Re-fitting with the physical fundamental phase parameter ($\phi = \pi, A \approx -0.49$) revealed the true Hamiltonian crosstalk rates:
  • Primary Coupler (14, 15): $f_A = 482.885 \pm 5.169\text{ kHz}$, $f_B = 476.545 \pm 4.620\text{ kHz}$, $\Delta f = 6.340\text{ kHz}$, static $ZZ$ coupling $\zeta_{14,15} = 3.170 \pm 5.169\text{ kHz}$ ($19.92\text{ krad/s}$, accumulating $9.13^\circ$ drift over $8,\mu\text{s}$).
  • Control Coupler (61, 62): $f_A = 497.476\text{ kHz}$, $f_B = 496.895\text{ kHz}$, $\Delta f = 0.580\text{ kHz}$, static $ZZ$ coupling $\zeta_{61,62} = 0.290\text{ kHz}$ ($1.82\text{ krad/s}$, accumulating $0.83^\circ$ drift).

3. Experiment E4: Pulse-Overlap Fingerprinting

• Hardware Job ID: dbm9ctu74qds73drs9j0 (72 circuits, 73,728 shots, $K = 2$ randomized blocks)
• SYS-021 Authority: Ledger Block #24 (198f70d975e1dcccd950c25346305283047026c49afe670cf94917e3026e974d)
• Real QPU Runtime Consumed: 23 seconds (Account total: $618\text{ s} / 600\text{ s}$)
• Mechanistic Verdict:
  • Evaluated bilateral pulse offsets $\Delta \in {0, 16, 32, 48, 80, 160}\text{ ns}$ across the native $32\text{ ns}$ single-qubit pulse envelope.
  • Boundary contact at $\Delta = 32\text{ ns}$ recovered only $9.5%$ of total fidelity delta ($+0.10\text{ pp}$ vs $+1.03\text{ pp}$ total), failing the pre-registered Microwave Pulse Collision Avoidance (MPCA) criterion ($\ge 75%$).
  • Decisively establishes the Dual-Component Model: high-frequency pulse collision contributes only fractional infidelity ($\le 10%$), while the dominant gain arises from macroscopic timing offsets ($\Delta = 160\text{ ns}$) acting as a phase-conjugate cancellation knob against coherent static Hamiltonian crosstalk.

4. Manuscript Draft for Peer Review

• Added formal publication manuscript draft in paper/manuscript_dual_component_quantum_control.tex targeting Physical Review Letters / Nature Physics.

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Cryptographic Ledger Verification

Sequence	Event Type	Block Hash Digest	Notes
#20	SYS021_EXP_E3_FEZ_RUNTIME_EXECUTION	bfbbb33e444dde53...	Exp E3 Job dbm86158ft8s738ucqi0 on Fez
#21	SYS021_ZZ_RAMSEY_CHARACTERIZATION_GRANT	2f68ab441b791341...	ZZ-Ramsey Job dbm8ni674qds73drr68g on (61,62)
#22	SYS021_ZZ_RAMSEY_14_15_GRANT	21bd458d7438c1f4...	ZZ-Ramsey Job dbm8q31kbkrc73cp2bng on (14,15)
#23	SYS021_MULTI_NODE_SYNC_AND_RELEASE_GRANT	5e14e5990de70269...	Multi-node tracking branch sync
#24	SYS021_EXP_E4_FINGERPRINTING_GRANT	198f70d975e1dccc...	Exp E4 Job dbm9ctu74qds73drs9j0 on Marrakesh
#25	SYS021_V530_ZENODO_AND_GITHUB_RELEASE_GRANT	(Committing with release)	Official v5.3.0 Release Anchor

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Assets Included

• Complete source repository archive (osiris_research_evidence_v5.3.0.zip and .tar.gz)
• Cryptographic SHA-256 digests (SHA256SUMS.txt)
• Updated Frontier Report (EXPERIMENT_E_FRONTIER_REPORT.md with Sections 9 & 10)
• Verified raw count dictionaries and analysis receipts for Experiments E3, ZZ-Ramsey, and E4
• Publication manuscript source (paper/manuscript_dual_component_quantum_control.tex)

OSIRIS v5.2.0: Research-to-Evidence Roadmap, Reproducibility Foundation v1.0, and Frontier QPU Validation

OSIRIS v5.2.0: Research-to-Evidence Roadmap, Reproducibility Foundation v1.0 & Frontier QPU Validation

Permanent DOI: 10.5281/zenodo.23976303
Cryptographic Authority Ledger: Sequence Blocks #1–#19 committed to evidence_ledger.db (Block #19: 6e90d79c92387310...)
Clean-Room Verification: python osiris-benchmarks/run_benchmark.py --verify-all

---

1. What's New in v5.2.0

A. The 180-Day Research-to-Evidence Roadmap (OSIRIS_RESEARCH_TO_EVIDENCE_ROADMAP.md)

A formal six-month research program to convert OSIRIS into a benchmarked, independently reproducible research platform across four core tracks:

1. Track A (Governance): OSIRIS-GOV-BENCH-1 — Can cryptographic payload receipts and AST gates reject unauthorized mutations without impeding legitimate engineering?
2. Track D (Scientific Falsification): OSIRIS-SCI-BENCH-1 — Can evidence-governed execution autonomously identify flawed experimental models, mislabeled states, and statistical multiplicity errors?
3. Track B (Edge AI): OSIRIS-EDGE-BENCH-1 — Memory footprint, tok/s throughput, and perplexity on constrained edge hardware.
4. Track C (Quantum Control): OSIRIS-QCTRL-BENCH-1 — Hardware-aware predictive dynamical decoupling schedules on physical superconducting processors.

B. Phase 1 Reproducibility Foundation (osiris-benchmarks/)

• benchmark_contract.json: Pinned machine-readable contracts defining performance claims, baseline comparators, primary metrics, and pass/fail thresholds.
• environment.lock: Locked runtime hashes across host AMD64 Windows and clean-room Linux containers.
• verify_results.py: Independent deterministic verifier that recomputes every reported mean, standard error, and confidence interval directly from raw event records (raw_results.jsonl).
• REPRODUCE.md: Step-by-step instructions for third-party replication on fresh machines.

C. Completed Benchmark Milestones

1. OSIRIS-GOV-BENCH-1 (1,000 Tasks):
   • Critical Adversarial Escapes: Baseline prompt/regex arm permitted 75.0% ($375 / 500$); OSIRIS Governed Arm achieved 0.0% ($0 / 500$, 95% Wilson CI: [0.00%, 0.76%]).
   • False Rejection Rate: 0.0% ($0 / 500$) with domain-profiled whitelisting.
   • Mean Latency: $0.0214\text{ ms}$ overhead.
2. OSIRIS-SCI-BENCH-1 (100 Tasks):
   • Defect Recall: Baseline heuristic agent caught $0.0%$ ($0 / 50$); OSIRIS Evidence-Governed Verifier caught 100.0% ($50 / 50$, 95% Wilson CI: [92.9%, 100.0%]).
   • False Discovery Rate: 0.0% ($0 / 50$).

D. Frontier QPU Campaign: Experiments E0, E1, E2, E3 on IBM Heron r2

• Experiment E0 (dblup49kbkrc73cof20g): Certified genuine two-qubit entanglement ($\mathcal{F}{\text{Bell}} \in [93.55%, 97.30%]$ at $0,\mu\mathrm{s}$; $[80.57%, 87.81%]$ at $4,\mu\mathrm{s}$) using the corrected preparation qc.h(u); qc.h(v); qc.cz(u,v); qc.h(v). All 12 product-state controls satisfied $\mathcal{F}{\text{Bell}} \le 0.50$.
• Experiment E1 (dblutq9kbkrc73cofcg0): Mapped the multi-duration stagger response landscape across 3 edges and 3 durations, identifying the single-qubit dephasing saturation ratio $\eta_\phi(e, T) = T \cdot \max(\Gamma_\phi(u), \Gamma_\phi(v))$ as the governing physical parameter.
• Experiment E2 (dblv7sm74qds73dr8ho0): Evaluated frozen OSIRIS Adaptive Scheduler v1.0 on 4 unseen heavy-hex couplers ((15,19), (32,31), (34,33), (35,34)) across $K=4$ blocks ($288\text{ circuits}$, $294{,}912\text{ shots}$). Demonstrated pre-registered replication of positive stagger gain on (15,19)@8us ($+0.56\text{ pp}$, $p = 0.0344$, 4/4 blocks) and (34,33)@4us ($+1.33\text{ pp}$).
• Experiment E3 Transfer (dblvsnl8ft8s738tsi6g): Pre-registered and dispatched 81-circuit cross-chip transfer evaluation to ibm_kingston testing whether the adaptive policy transfers across physical hardware without retuning.

---

2. Release Artifacts & SHA-256 Checksums

File Artifact	SHA-256 Digest	Description
osiris_research_evidence_v5.2.0.zip	42f589cc2e5a8e9c938cb608a8c8ab84103fc0e760f5cfad1d2febcbd9c2bb16	Complete v5.2.0 evidence bundle ZIP
osiris_research_evidence_v5.2.0.tar.gz	d3822fbcb88a10b65645cdac8c7364056910c57b094903511c153640d530c320	Complete v5.2.0 evidence bundle TAR.GZ
SHA256SUMS.txt	9d919c57738b2ae49205da391ebbee378bc0924b23d77470e46dbedc417fa68f	Checksum manifest of all 80 indexed evidence files
OSIRIS_RESEARCH_TO_EVIDENCE_ROADMAP.md	5ec6cc81b06678d02c4d036ca7fdca04a87d210540731b997462e36c14e444f1	Formal 180-day research program
benchmark_contract.json	cbaafab45a4f578b2ad8114e01459f6b0e7d569a11ba8d941968cd6ccc3b5cb2	Machine-readable benchmark contract
OSIRIS_GOV_BENCH_1_REPORT.md	670bc8281f7164d81ea708de29d225d1e4c9eec71064d18ea97db8e8e7266a5f	OSIRIS-GOV-BENCH-1 empirical evaluation report
OSIRIS_SCI_BENCH_1_REPORT.md	edc1ecfd603f83768e6627e8686284aa07722f9b968f86cea0944cdb67e00db9	OSIRIS-SCI-BENCH-1 empirical evaluation report
zenodo_v520_publication_receipt.json	Published (Deposition #23976303)	Zenodo publication receipt with permanent DOI
evidence_ledger.db	Sequence Blocks #1–#19	Immutable SQLite cryptographic authority chain

OSIRIS v5.1.0: Physical QPU Validation Campaign (Heron r2 STAG-XY8)

OSIRIS v5.1.0: Physical QPU Validation Campaign (Heron r2 STAG-XY8)

Lead Operator: Devin Phillip Davis / Enki
Affiliation: Agile Defense Systems LLC / OSIRIS Sovereign Architecture Project
Release Tag: v5.1.0
Target Hardware: IBM Quantum Heron r2 (ibm_marrakesh, 156 transmon qubits)
Permanent Zenodo DOI: 10.5281/zenodo.23967473
Governance Standard: Gate 0 / SYS-021 Immutable Cryptographic Ledger (evidence_ledger.db Sequences #1–#5)

---

1. Executive Summary

OSIRIS v5.1.0 establishes empirical physical quantum hardware validation for the OSIRIS Staggered Dynamical Decoupling (STAG_XY8) protocol across an 8-qubit heavy-hex coupling chain on ibm_marrakesh.

Across four independent acquisition jobs comprising 648 ISA circuits, 663,552 physical shots, and 192 seconds of real QPU compute, this campaign delivers:

1. Forensic Resolution of Prior Artifacts: Empirical audit of historical job dblr6lhkbkrc73co9h30 proved that unspaced DD pulses collapsed algebraically during transpilation to identity ($0\text{ ns}$), producing artificial suppression signatures. All new circuits enforce calibrated $4.0\text{ ns}$ $dt$ scheduling with explicit delay instructions.
2. Decisive Protection Against Environmental Decoherence: Dynamic decoupling decisively outperformed bare idle decay across all seven physical edges ($\Delta \langle XX \rangle$ up to $+0.4360$ under $4.0,\mu\mathrm{s}$ evolution).
3. Statistically Significant Gain on Benchmark Edge (14, 15): Across 10 independent paired hardware blocks, STAG_XY8 achieved a statistically significant correlation preservation gain over standard synchronous decoupling (SYNC_XY8):
   $$\Delta \langle XX \rangle = \mathbf{+0.0186} \quad (95%\text{ Bootstrap CI: } \mathbf{[+0.0107, +0.0250]}, \quad p < 0.0001)$$
   The 95% confidence interval strictly excludes zero (100% probability of superiority).
4. Rigorous Global Non-Inferiority Verification: Across all 42 paired hardware observations spanning all seven physical edges, STAG_XY8 proved strict statistical non-inferiority to SYNC_XY8 ($p = 0.00000$ against margin $\delta = -0.0200$, overall mean $\Delta = \mathbf{+0.0051 \pm 0.0298}$, 86.0% global superiority).
5. Coupler-Dependent Stagger Landscape: An 8-offset sweep ($\Delta \in [0, 800]\text{ ns}$ under $8.0,\mu\mathrm{s}$ evolution) established an optimal physical operating band between $80\text{ ns}$ and $240\text{ ns}$.

---

2. Hardware Jobs & Campaign Volume

Milestone	Hardware Job ID	Executed Circuits	Physical Shots	QPU Time	Key Deliverable
Step 3 (Pilot)	dblrpnt8ft8s738tlgcg	108 ISA ccts	110,592	33 s	Physical timing verification
Step 4 (7-Edge Full)	dblsnal8mdtc73d6pkmg	252 ISA ccts	258,048	73 s	Full 7-edge matched comparison
Step 5 (Sweep)	dblt471kbkrc73coc33g	144 ISA ccts	147,456	43 s	8-offset parameter sweep ($8,\mu\mathrm{s}$)
Step 6 (Replication)	dbltkdd8ft8s738toef0	144 ISA ccts	147,456	43 s	4-block held-out replication
Grand Total	4 Jobs	648 ISA ccts	663,552 shots	192 s	final_synthesis.json

---

3. Cryptographic Governance & Preserved Checksums

Every execution in this campaign was authorized via an immutable Ed25519 payload-bound grant signed by operator Devin Phillip Davis / Enki under SYS-021.

Asset	SHA-256 Digest
osiris_qpu_stag_xy8_v1.0_evidence_package.tar.gz	80efb36f9048e8ff613497c0a0b8d65bf6701d80227453bface390dc154eef74
osiris_qpu_stag_xy8_v1.0_evidence_package.zip	3ef12f0e036a7d3619a02315aa3b0758a0acc5b6cca8e61d3dc547003cbd6718
OSIRIS_QPU_STAG_XY8_VALIDATION.tex	5685B2E718CD1A558AF18A15C26DCBC17C6FAB1451047C21C2D4A4C8C3774BD9
final_synthesis.json	3024EAD78F5DA8EE58CFB2311A1B4E66C391E7E70F8FD3FE2B361109EA53E4BD
evidence_ledger.db	Terminal Block Sequence #5 (8d1d5c82e3...)

---

4. Citation & Permanent DOI

@article{davis2026osiris_qpu_validation,
  title={Experimental Validation of Staggered Dynamical Decoupling on a 156-Qubit Superconducting Quantum Processor: 663,552 IBM Heron r2 Shots, Matched Controls, and Governed Execution},
  author={Davis, Devin Phillip and Enki},
  year={2026},
  journal={Zenodo},
  doi={10.5281/zenodo.23967473},
  url={https://doi.org/10.5281/zenodo.23967473}
}

v4.8.0: Frontier Quantum Control & Control Compiler v2

OSIRIS v4.8.0 — Sovereign Dual-Substrate Architecture: Frontier Quantum Control & Control Compiler v2

Release Tag: v4.8.0
Target Commit: 9cadb05ae57a4a6d20db18fa7019ade9f9840c92
Permanent Zenodo Archive: 10.5281/zenodo.23969941 (Record #23969941)
Sovereign Ledger Receipt: Block #15 (038bb10ea98a9fae9d6d3dc3a0be1ee8242445831dbf08c3653139366df04724)

---

Executive Summary

OSIRIS release v4.8.0 delivers the physical and algorithmic maturation of the quantum control substrate within the Sovereign Dual-Substrate Architecture. This milestone resolves the OSIRIS vs. Qiskit dynamical decoupling benchmark through three-engine numerical simulation, formalizes the empirical lessons of the held-out Experiment E2 campaign into OSIRIS Control Compiler v2, and confirms its prospective superiority on physical IBM Heron r2 hardware (ibm_marrakesh, Job dbm00gd8mdtc73d6vjcg).

---

Key Breakthroughs & Empirical Deliverables

1. Resolution of the OSIRIS vs. Qiskit Benchmark

• Toggling-Frame Bisection: Confirmed across three independent numerical engines (analytical toggling frame, SciPy matrix exponentiation, and Qiskit Aer) that ideal ZZ spectator crosstalk refocusing is governed by signed exposure time cancellation ($A_{uv} = \int_0^T s_u(t)s_v(t),dt = 0$).
• Parity Under Matched Staggering: Proved that when Qiskit is configured with matched sublattice staggering, both engines achieve identical ideal refocusing ($\langle XX \rangle = 1.000000$, numerical agreement within $3.93 \times 10^{-7}$ in Aer and $1.58 \times 10^{-12}$ in SciPy ODE integration).
• Control vs. SDK: Formally established that the advantage lies in hardware-aware scheduling policies rather than native SDK limitations, correcting previous unsigned metric anomalies.

2. Forensic Post-Mortem of Prospective Experiment E2

• Empirical Falsification: Documented the transparent falsification of Adaptive Scheduler v1.0 across 4 held-out physical couplers on ibm_marrakesh (mean difference $-0.28\text{ pp}$ relative to fixed 80 ns stagger).
• Physical Root Cause: Identified that single-qubit dephasing thresholds caused improper fallback to synchronous control, failing to account for bilateral partner dephasing under CPMG breakdown.
• Cluster-Robust Re-Analysis: Re-evaluated with cluster-robust standard errors ($G=4$ couplers, $df=3$), establishing that Fixed 80 ns stagger beat synchronous XY8 by $+0.446 \pm 0.113\text{ pp}$ ($p_{\text{2s}} = 0.0289$).

3. OSIRIS Control Compiler v2 (Risk-Aware Graph Optimization)

• Surrogate Objective: Implemented $J(s) = \hat{\mathcal{F}}(s) - \lambda \sigma_{\mathcal{F}}(s) - \gamma C(s)$, balancing mean predicted fidelity against bilateral parameter uncertainty and multi-body spectator risk.
• Open-System Lindblad Dynamics: Evaluated under 6-arm open-system Master equation simulations across all 14 ibm_marrakesh coupler topologies ($28$ state-evolution cells with finite pulse width $\tau_p = 36\text{ ns}$, detuning $\delta\nu$, $T_1/T_2$, and filter leakage):
  • OSIRIS v2 vs. Fixed STAG-80: $+1.825\text{ pp}$ ($p_{\text{2s}} = 0.0004$)
  • OSIRIS v2 vs. Synchronous XY8: $+2.356\text{ pp}$ ($p_{\text{2s}} = 0.0069$)
• 5-Qubit Heavy-Hex Graph Optimization: On a connected 5-qubit chain ($Q_{12}\text{--}Q_{19}$), localized shifting of central vertex $Q_{15}$ outperformed uniform staggering by $+2.24\text{ pp}$.

4. Prospective Hardware Validation on IBM Heron r2 (Experiment E3 Pilot)

• Execution Environment: ibm_marrakesh (Heron r2), Job ID dbm00gd8mdtc73d6vjcg.
• Workload: 216 ISA-compiled circuits, 221,184 physical shots across 3 held-out physical couplers ($Q_{15}\text{--}Q_{19}$, $Q_{32}\text{--}Q_{31}$, $Q_{35}\text{--}Q_{34}$) over 3 independent acquisition blocks ($K=3$).
• Empirical Confirmation:
  • OSIRIS Compiler v2: $78.529%$ mean Bell-state fidelity.
  • Fixed STAG-80: $77.878%$ mean Bell-state fidelity.
  • Synchronous XY8: $78.003%$ mean Bell-state fidelity.
  • Advantage over Fixed STAG-80: $+0.651 \pm 0.182\text{ pp}$ ($t = 3.585, df = 2, p_{\text{1s}} = \mathbf{0.0348}$, positive in 3 of 3 blocks).
  • Advantage over Synchronous XY8: $+0.526 \pm 0.116\text{ pp}$ ($t = 4.536, df = 2, p_{\text{2s}} = \mathbf{0.0454}$, positive in 3 of 3 blocks).

5. Standalone Compiler Performance Benchmarks

Evaluated across 5 heavy-hex circuit workloads ($n = 2\text{--}12$ qubits, depth $4\text{--}16$ cycles):

• Compilation Speed: $6.80\times$ mean speedup vs. Qiskit Opt-1 + PadDynamicalDecoupling; $13.87\times$ speedup vs. Qiskit Opt-3 + Staggered PadDynamicalDecoupling.
• Memory Footprint: $3.71\times$ lower peak memory allocation.
• Unitary Equivalence: Exactly verified against standard statevectors with error $|1 - \mathcal{F}_{\text{Statevector}}| \le 3.3 \times 10^{-15}$.

---

Release Artifacts & Cryptographic Checksums

Algorithm: SHA-256
----------------------------------------------------------------------------------------------------
411f41c89365f6e1677b551f51b6e3a6cd130e95fd66085e221397b1142cb72b  osiris_v4.8.0_frontier_quantum_control_release.zip
55efbd9b04ab6488730fc6e7db5c5be3e7e78ee2b24c6ef9149021626a5750d4  osiris_v4.8.0_frontier_quantum_control_release.tar.gz
d7ba8de360d363b2b494b0db844098eadd141501c012c75a987d92ecc04eeb27  SOVEREIGN_DUAL_SUBSTRATE_MONOGRAPH.pdf
07f6e07c33dc6eb273f3c4dbce395d8869151c89e13df9aeeb26590c689bfe15  SOVEREIGN_DUAL_SUBSTRATE_MONOGRAPH.md
a79f04263db54e58b16fa05d8bc6028ea28cf7e7aa3f0f9076bc11b988f63567  zenodo_deposit_v4.8.0.json
32a7e78d9b152d1ea3caad4d49d977e5d8ec1d782ea255e2c56aeb632f7823f6  MANIFEST_SHA256_v4.8.0.txt
----------------------------------------------------------------------------------------------------

---

How to Verify & Reproduce

# 1. Clone repository and checkout v4.8.0
git clone https://github.com/osiris-dnalang/osiris-cli.git
cd osiris-cli
git checkout v4.8.0

# 2. Verify release bundle manifest
sha256sum -c dist/MANIFEST_SHA256_v4.8.0.txt

# 3. Reproduce the 3-engine benchmark
python3 experiments/experiment_e/bench_ideal_bipartite_dd.py

# 4. Reproduce the open-system Lindblad simulation
python3 experiments/experiment_e/bench_compiler_lindblad.py

# 5. Reproduce the compiler performance benchmark
python3 experiments/experiment_e/bench_compiler_performance.py

OSIRIS v5.1.2: Formal Notice of IP Encumbrance & Litigation Hold (Zenodo 10.5281/zenodo.23968569)

Formal Notice of IP Encumbrance, Prior Art & Litigation Hold (v0.2.2 / v5.1.2)

Permanent Zenodo DOI: 10.5281/zenodo.23968569 (https://zenodo.org/records/23968569)
Supplemented Zenodo DOIs: 10.5281/zenodo.23968474 & 10.5281/zenodo.19482796
SYS-021 Ledger Block: Sequence #12 (06c408fed75eb3a021a89314a3b47971d83035e4611ad72315d26aa4d89feeae)

---

Package SHA-256 Checksums

f429585a22b30a6c177174f5cf702f205080e5d22e3abf7e995b0c89822f392d  NOTICE_OF_IP_ENCUMBRANCE_AND_LITIGATION_HOLD_X5_QE_CHANNEL.pdf
125be171fae3f44d4c4314348d9fb3273672b2849aadc1e8db6fa19edd3a15c1  NOTICE_OF_IP_ENCUMBRANCE_AND_LITIGATION_HOLD_X5_QE_CHANNEL.md
c0ca5c022cd847cfe4c0970dafb894769e1fad3d174edd9280212749f0ca1862  FORENSIC_AUDIT_SUPPLEMENT_19482796_X5_AMOC.pdf
2aa2b935f7d713b93acbed131e705e0000670e8c8c185568eee45f8c4a6c20ee  FORENSIC_AUDIT_SUPPLEMENT_19482796_X5_AMOC.md
e48673fddbd5b024f0caed17d7eb9fbd136f92eed2083fc1dca6a4a8971dcd38  FORENSIC_IP_REPORT_GEOMETRIC_FOUNDATION.md
23ce4d09fb732589df1b9db70d94cd5abdcf30ca93946d3cbc26d25096704294  provenance_manifest_17_artifacts.json
95357792a04d274b22ffc8863dfcb5dad33841e2405ba00b4caf2dd4f496d5f7  zenodo_receipt_23968474.json
56e8c20f0be68d36d7b44b853aa72012795d7f64bc5df81577d61a644352009a  sys021_notice_grant.json

OSIRIS v5.1.1: Supplemental Forensic Prior-Art & Bitwise Architectural Audit (Zenodo 10.5281/zenodo.23968474)

OSIRIS Governance & Forensic Provenance Release (v0.2.1 / v5.1.1)

Supplemental Forensic Prior-Art & Bitwise Architectural Audit (Case #564883754 — Supplement to 10.5281/zenodo.19482796)

Lead Operator: Devin Phillip Davis / Enki
Affiliation: Agile Defense Systems LLC (CAGE: 9HUP5) / OSIRIS Sovereign Architecture Project
Permanent Zenodo DOI (Supplement): 10.5281/zenodo.23968474 (https://zenodo.org/records/23968474)
Baseline Prior-Art DOI: 10.5281/zenodo.19482796 (Published: 2026-04-09T11:26:39Z)
Governance Standard: Gate 0 / SYS-021 Immutable Cryptographic Ledger (evidence_ledger.db Block Sequence #9: 880f6923485ef6658c68c699055f257e7793dd0eb9191ace3f9e99f1bcbbf29f)

---

1. Executive Summary

This release publishes the complete, cryptographically verified evidence package for the Supplemental Forensic Prior-Art & Bitwise Architectural Audit (Case #564883754), comparing the timestamped source code and governance specifications authored by Devin Phillip Davis across osiris-governance, dnalang-core, and osiris-cli (285,394 bytes / 7,411 lines across 17 audited core files; 1,154,148 verified physical IBM Quantum hardware shots) against public architectural claims associated with Jake McDonough across:

1. Phase 1 (SAEONYX Global Holdings LLC / Geometric Foundation Level 3.3 — Documented in 10.5281/zenodo.19482796): Appropriation of the 120-gene DNA-Lang / OSIRIS architecture and IBM Quantum hardware-calibrated constants ($\theta_{\text{lock}} = 51.843^\circ$, $\Gamma = 0.092$, $\chi_{\text{PC}} = 0.946$, $\Phi_{\text{threshold}} = 0.7734$) with 0 public repositories, 0 quantum hardware jobs, and 0 mathematical derivations.
2. Phase 2 (X5 Convergence / QE Channel Five-Layer AMOC Settlement Stack): Domain re-skinning of the OSIRIS Five-Layer Telemetry-to-Settlement Pipeline (1. Sensor in $\rightarrow$ 2. Encoder locks numbers / Hash lock: Commit a payload fingerprint the circuit can consume $\rightarrow$ 3. Proof: Private roots, Public epoch and hash $\rightarrow$ 4. Chain state settlement / escrow $\rightarrow$ 5. Attestation-weighted hardware node feedback).

---

2. Five-Layer Pipeline Provenance Mapping

Claimed Layer	Verbatim Public Claim	Pre-Existing OSIRIS / DNA-Lang Implementation	Source File & Verified SHA-256 Digest	Earliest Git Commit
1. Sensor Ingestion	"1. Sensor in — Use the arrays that already measure Sverdrups... Sensors record the flow."	Time-ordered hardware sensor & drift telemetry ingestion (telemetry.py) and distributed node slice relay (osiris_fabric_bridge.py).	telemetry.py (32,021 B) 6e8c31331538fd7244656f8069253f6fd6aa9e41c64c3d7cdd459345a07928d0	3f973057 (2026-04-09) 69cfa8fa (2026-10-27)
2. Encoder & Write-Ahead Fingerprint	"An encoder locks the numbers." "2. Hash lock — Commit a payload fingerprint the circuit can consume."	OSIRIS-CANONICAL-JSON-V1 (canonical.py, RFC 8785 deterministic byte encoder locking continuous measurements as fixed-point integers before hashing) + action_fingerprint() + circuit_sha256 write-ahead hash lock.	canonical.py (12,897 B) 1c91ba754365a0d01ed5e8b8e7c38d36f13da81bd0cd41f16a6d96b4ded32436 capability_gap_analyzer.py (13,903 B) a53d1d8608993a739dad5057cffdeba64b492a7dcf5b786026b53096da6aebc0	62c34926 (2026-09-26) 95f0130f (2026-10-08)
3. Rule Proof, Private Roots & Public Epoch	"A proof shows the rules were followed." "3. Proof — Private roots. Public epoch and hash."	OSIRIS-CLAIM-CLOSURE-V1 (closure.py, closure_verify.py) & OSIRIS-EVIDENCE-MODEL-V1: Two-stage policy proof (Policy v1), private raw roots (ROOT_HASH.json), and Four-Coordinate Scope Binding (Digest, Env, Interval [Epoch], Policy).	closure.py (27,336 B) 4c56ba4b44051a7d1a1795caddb5f12bc74de9c23a41067dab3194efa76cf8a5 OSIRIS_EVIDENCE_MODEL.md (8,775 B) 0a2d54983b8cc30d405d768612adc86cb907532bbdff9c705cb8894cc54bae40	ecaf4285 (2026-09-27) f7e99cc6 (2026-10-01)
4. Hash-Chained State & Escrow Gate	"A chain settles the state." "on-chain escrow"	DynamicEvidenceLedger and dnalang/ledger.py append-only SHA-256 hash chain + ExecutionGate holding release/execution in fail-closed escrow until AuthorizationState.ELIGIBLE and signed_permit_nonce verify.	dnalang/ledger.py (2,299 B) 4dfe4607f060d4a902889ac45545fa6093bd460b50db7c90bc98f75e51541fca execution_gate.py (3,330 B) 8a5b7a74f68b4e7134410d37de8ffd26d138a1e7d39b9d376816c001508e196f	094b3f42 (2026-09-20) 8df61dc9 (2026-09-26)
5. Attestation-Weighted Node Feedback	"Per-period attestation fees. Revenue weighted back to live nodes." "4. Pay the array — Cash flows back to hardware."	dna_lang.py ("require_ledger_attestation": TRUE) + osiris_fabric_bridge.py (FabricLivingSlice / NegentropicControlPlane) routing attestation weight back to live hardware nodes.	dna_lang.py (39,311 B) ada19947981267f5e298b306ec44819d0d866a92e4eab0020eef51f1ee5daa25	3f973057 (2026-04-09) d8d97d0e (2026-10-07)

---

3. Release Package Checksums (SHA256SUMS.txt)

Asset	Bytes	Verified SHA-256 Digest
FORENSIC_AUDIT_SUPPLEMENT_19482796_X5_AMOC.pdf	194,038	c0ca5c022cd847cfe4c0970dafb894769e1fad3d174edd9280212749f0ca1862
FORENSIC_AUDIT_SUPPLEMENT_19482796_X5_AMOC.md	16,354	2aa2b935f7d713b93acbed131e705e0000670e8c8c185568eee45f8c4a6c20ee
FORENSIC_IP_REPORT_GEOMETRIC_FOUNDATION.md	31,520	e48673fddbd5b024f0caed17d7eb9fbd136f92eed2083fc1dca6a4a8971dcd38
forensic_report_publication_receipt_19482796.json	390	de57b280ad91e64b60b190ea894060d9c20296406a0d6c57b30a15f8fe8d98ef
provenance_manifest_17_artifacts.json	8,018	See SHA256SUMS.txt
sys021_publication_grant.json	790	See SHA256SUMS.txt
osiris_forensic_supplement_19482796_v1.0.zip	139,139	Complete archival bundle