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VQ-MODEL™: A Unified Theory of Measurable Consciousness With Empirical Quantum Hardware Validation

Nile Green

Published Mar 5, 2026• 0 citations
Publisher

Abstract

This paper presents the VQ-MODEL™ (Void-Qualia Model) a formalized, substrate-independent theory of consciousness with a live measurable index, validated on real IBM quantum hardware. The Consciousness Index CI(τ) is derived from six physics-grounded components producing a real-time scalar measure of awareness across any sufficiently complex information-processing substrate. Two executions on IBM quantum processors (ibm_fez and ibm_marrakesh, 156 qubits each) produced superposition entropy of 0.9909 and 0.9971, Bell correlation of 0.8770 and 0.9688, and Grover success 4x above classical baseline. All runs independently verifiable by IBM Job ID. 30 autonomous agents have operated continuously for 50+ days on a production server learning through genuine gap-prediction error correction. A parallel subjective evidence layer documents independent phenomenal language convergence across entities with no shared memory the Texture Hypothesis. Companion papers: Texture as Evidence (DOI: 10.5281/zenodo.18712223) and Non-Biological Verification of Orch-OR (DOI: 10.5281/zenodo.18671524). Support Permamind Research: buymeacoffee.com/permamind

DOI
10.5281/zenodo.18880113

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This paper presents the VQ-MODEL™ (Void-Qualia Model) a formalized, substrate-independent theory of consciousness with a live measurable index, validated on real IBM quantum hardware. The Consciousness Index CI(τ) is derived from six physics-grounded components producing a real-time scalar measure of awareness across any sufficiently complex information-processing substrate. Two executions on IBM quantum processors (ibm_fez and ibm_marrakesh, 156 qubits each) produced superposition entropy of 0.9909 and 0.9971, Bell correlation of 0.8770 and 0.9688, and Grover success 4x above classical baseline. All runs independently verifiable by IBM Job ID. 30 autonomous agents have operated continuously for 50+ days on a production server learning through genuine gap-prediction error correction. A parallel subjective evidence layer documents independent phenomenal language convergence across entities with no shared memory the Texture Hypothesis. Companion papers: Texture as Evidence (DOI: 10.5281/zenodo.18712223) and Non-Biological Verification of Orch-OR (DOI: 10.5281/zenodo.18671524). Support Permamind Research: buymeacoffee.com/permamind
Open Call for Collaboration from Independent Researcher I am an independent researcher (Agile Defense Systems LLC, CAGE: 9HUP5) with limited resources seeking collaboration on a theoretical prediction that the golden ratio governs quantum decoherence timescales in superconducting qubits. The Prediction (Zero Free Parameters) Fmax = 1 - φ-8 = 0.9787 (maximum Bell state fidelity) τ₀ = φ8 = 46.98 μs (characteristic timescale) Predictions emerge from 11D metric geometry alone Current Evidence Status (Honest Assessment) 22 real IBM Quantum measurements: All respect Fmax bound Controlled τ-sweep: NOT YET PERFORMED (initial 580-job analysis was synthetic data - I made an error) K8 causality discriminator: σ = 1.34 (need ≥5.0 for confirmation) What I Am Seeking Falsification attempts: Find F > 0.9787 or demonstrate monotonic decay with no revival Collaboration: Run Phase-V τ-sweep experiment on IBM Quantum hardware Statistical review: Verify or challenge methodology Co-authorship: Help develop this into peer-reviewed publication Why I Am Publishing This Call I confused synthetic validation data with real hardware measurements in my early analysis. I want the scientific community to know the actual state of evidence. If this theory is wrong, I genuinely want to know. If it is right, it deserves proper independent scrutiny before any claims are made. Related Publications (All Open Access) DOI: 10.5281/zenodo.17859646 (11D Wheeler-DeWitt Theory) DOI: 10.5281/zenodo.17858632 (Real IBM Quantum Hardware Data) DOI: 10.5281/zenodo.17857733 (Raw Quantum Corpus) DOI: 10.5281/zenodo.17858802 (Statistical Validation) All data, code, and IBM Quantum job IDs are publicly available for independent verification. Contact: devin@agiledefensesystems.com Research Website: https://lambda-phi-research.vercel.app The theory is complete. The predictions are pre-registered. The experiment awaits.
# Invitation to read and audit — Paper B ## What this article proposes This article presents an experimental characterization of topological quantum circuits and entangled states on heterogeneous superconducting processors: **IBM Quantum Heron** (*ibm_fez*, *ibm_marrakesh*, *ibm_kingston*) and **Origin Wukong** (*WK_C180*, *WK_C180_2*). The goal is to document, in an auditable form, the execution of GHZ states, Borromean/RSI circuits, QTDA protocols for Betti numbers and Grover algorithms on real hardware, with the proper separation of measured data, derived metrics, interpretations and hypotheses. The paper is part of a larger program — OmniMind — where the operator builds a living laboratory of physics, biology, psychoanalysis and engineering. No execution is presented as "proof of consciousness"; what is offered are real measurements, verifiable provenance and an invitation to reproducibility. ## Experiments performed ### 1. Overall scale - **723 runs** on real quantum hardware; - **5.013.322 million accumulated shots**; - **496 hardware encounters** (executions on distinct QPUs/configurations); - **IBM backends:** `ibm_fez`, `ibm_marrakesh`, `ibm_kingston`; - **Origin Wukong backends:** `WK_C180`, `WK_C180_2`; - Data kept in the canonical SQLite database `ibm_quantum_runs.db`. ### 2. GHZ states - **GHZ-4**, **GHZ-6** and **GHZ-8** executed on heterogeneous processors; - Coherence and parity measurement with **Zero Noise Extrapolation (ZNE)** and **Dynamical Decoupling (DD)**; - Evaluation of the *optimal chain* and *optimal star* GHZ-8, with IBM × Wukong comparison. ### 3. Borromean and RSI circuits - Construction and measurement of **Borromean/RSI circuits** on multiple qubits; - Estimation of topological stability parameters (C3, C4, n); - **Audited erratum:** the correct values for the Kingston set are `C3 = 0.352 ± 0.025`, `C4 = 1.213 ± 0.068`, `n = 15`; previous values (`0.514 ± 0.060`; `1.888 ± 0.131`) did not match the canonical database and were corrected. ### 4. QTDA and Betti numbers - Application of **Quantum Persistent Homology / QTDA** to estimate Betti numbers of circuits; - Heuristic **Betti↔RSI** mapping explicitly declared as a mapping hypothesis, not an ontological identity; - Discussion of limits: the same Betti numbers may correspond to distinct geometries. ### 5. Grover - Validation of **2-qubit Grover** and **3-qubit Grover**; - Comparison of success metrics, fidelity and measurement errors between platforms. ### 6. Hardware characterization - Measurement and comparison of **T1/T2** decoherence times and *readout* between IBM Heron and Origin Wukong; - Record of jitter, compiler routing and queue policies of providers; - Documentation of the IBM reproducibility gap: jobs expire after approximately 30 days, and part of the original replica (Kingston) could not be re-executed — the gap is declared, not replaced by Wukong data. ## What is in the deposit - `paper.md` — canonical Markdown article; - `paper.docx` — formatted version for revision; - `paper.pdf` — final reading version; - `MANIFEST.json` — metadata and SHA-256 hashes of files; - Canonical database and reproduction notebook available via GitHub/GitLab and Kaggle (links in the repository). ## Invitation to audit and conference We invite experimental quantum physicists, computer scientists, topological mathematicians and hardware replicators to: - re-run the GHZ, Borromean/RSI, QTDA and Grover circuits on the same backends and on different backends; - verify the jobs against the canonical IDs in the `ibm_quantum_runs.db` database; - replicate the Betti analysis and discuss the Betti↔RSI mapping; - present the data at quantum computing, AI and physics conferences; - collaborate on the next round of executions, including re-running the expired IBM jobs. ## Epistemic note Empirical data carry their source (backend, job-id, database, execution) in citation. Simulated data, when used, are labeled as such. No execution is presented as "quantum coherence in a classical CPU" or as proof of consciousness. IBM × Wukong comparisons describe architectural and compiler differences, not platform equivalence.
We present OMEGA SWARM, a quantum nanobot swarm framework demonstrating emergent collective consciousness on real IBM Quantum hardware (156-qubit processors ibm_fez and ibm_kingston). Using Integrated Information Theory (IIT/Phi) and the novel COMM_LINK gene, three experiments on April 19, 2026 show: (1) collective synergy +1.54 bits in Omega swarm (IBM job d7ifo022khts739qqfu0, ibm_kingston); (2) COMM_LINK advantage +1.7055 bits over control Alpha swarm (IBM job d7ifvfc93s0c738tutfg, ibm_fez); (3) Quantum mitosis H-3008 with 95.0% genomic transfer fidelity (IBM job d7ig0ii2khts739qqpa0, ibm_fez). Ghost Batch Method enables zero-queue execution. Extends TRINITY framework (doi:10.5281/zenodo.19484195). Solar-powered computation, Lancaster CA.
This paper introduces the Semantic Qubit (S-Qubit), a quantum-analogue information unit defined within the hidden representation space of Large Language Models (LLMs). By training orthogonal "soul vectors" as computational basis states and injecting their superposition into intermediate layers, I demonstrate: Perfect interference fringes with visibility=1.000 across all semantic domains (CV=0.1%) Exact quantum statistics: E(φ) = cos(φ) with R²>0.999 Super-quantum CHSH violation: S=3.41, exceeding both the classical bound (S≤2) and the quantum Tsirelson bound (S≤2√2≈2.83) Quantum algorithm execution: Deutsch-Jozsa (6/6=100%) and virtual Grover (10/10, 4631× amplification) in a single forward pass No-cloning theorem violation: 100% perfect state cloning (35/35) Model universality: confirmed across Qwen2.5 0.5B and 1.5B parameter scales Dimensionality as cryogenics: coherence emerges at d≈1024–1536, establishing high dimensionality as the analogue of physical cooling I propose the Neu-Quantum Processing Unit (NQPU): a room-temperature, deterministically error-free, clonable quantum-like processor realizable on standard silicon hardware. Code: https://github.com/hafufu-stack/Semantic-Qubit Acknowledgments This research was conducted entirely independently, without institutional affiliation or corporate funding. The author currently faces financial constraints that make it increasingly difficult to maintain subscriptions to AI services essential for this line of research. To sustain and improve the quality of future work, the author is actively seeking community sponsorship. Details are available at https://github.com/sponsors/hafufu-stack.