| _version_ | 1866901193241919488 |
|---|---|
| author | P, Balagopal |
| author_facet | P, Balagopal |
| contents | <p>HALO (Holographic Artificial-Life with Observational confinement) is a quantum-computing architecture integrating the Page–Wootters mechanism, decoherence-free subspace encoding, subspace-isometric holographic compression, and complexity-theoretic fitness encryption. Using a six-rung claim-ladder methodology, we report evidence at six levels: toy-scale composability (C0), sub-linear qubit-count scaling in a matched-fidelity proxy benchmark (C1), explicit isometric compression across k-excitation subspaces (C2), a statistically significant security hardening trend under a bounded heuristic attacker (C3), direct-sum isometric embeddings spanning multiple excitation sectors with zero isometry error (C4), and a fully quantum multi-generation evolution loop via Grover amplitude amplification with no intermediate measurement (C5). Hardware-scale validation is identified as an open problem and explicitly deferred (C6). All simulation code (Qiskit / NumPy), raw data (JSONL), and reproduction scripts are included.</p> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_18769321 |
| institution | Zenodo |
| language | |
| publishDate | 2026 |
| publisher | Zenodo |
| record_format | zenodo |
| spellingShingle | A Tiered Evidence Program for a Holographic Quantum Artificial-Life Architecture P, Balagopal quantum computing artificial life Page-Wootters mechanism decoherence-free subspace holographic compression fitness encryption QMA-hardness Qiskit Grover amplitude amplification cross-sector isometry claim-ladder methodology <p>HALO (Holographic Artificial-Life with Observational confinement) is a quantum-computing architecture integrating the Page–Wootters mechanism, decoherence-free subspace encoding, subspace-isometric holographic compression, and complexity-theoretic fitness encryption. Using a six-rung claim-ladder methodology, we report evidence at six levels: toy-scale composability (C0), sub-linear qubit-count scaling in a matched-fidelity proxy benchmark (C1), explicit isometric compression across k-excitation subspaces (C2), a statistically significant security hardening trend under a bounded heuristic attacker (C3), direct-sum isometric embeddings spanning multiple excitation sectors with zero isometry error (C4), and a fully quantum multi-generation evolution loop via Grover amplitude amplification with no intermediate measurement (C5). Hardware-scale validation is identified as an open problem and explicitly deferred (C6). All simulation code (Qiskit / NumPy), raw data (JSONL), and reproduction scripts are included.</p> |
| title | A Tiered Evidence Program for a Holographic Quantum Artificial-Life Architecture |
| topic | quantum computing artificial life Page-Wootters mechanism decoherence-free subspace holographic compression fitness encryption QMA-hardness Qiskit Grover amplitude amplification cross-sector isometry claim-ladder methodology |
| url | https://doi.org/10.5281/zenodo.18769321 |