Warm Quantum Computing via Structured Decoherence: A Residue-Based Framework Linking PRQ Dynamics, Genesis Functors, and Quantum Biology
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| Natura: | Recurso digital |
| Lingua: | inglese |
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Zenodo
2025
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| _version_ | 1866901253365170176 |
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| author | Kruse, Christopher Grant |
| author_facet | Kruse, Christopher Grant |
| contents | <p>This paper unifies three independent theoretical modules—Residue Dynamics (R = αC²), Pattern-Resonant Qualia (PRQ) attractor theory, and the Genesis Functor—into a complete architecture for quantum computation at ambient temperature. Rather than fighting environmental decoherence, we engineer it as the primary computational mechanism. Collapse is not destructive erasure but structured computation: guided sequences of collapses encode solutions in residue patterns. Biological systems (photosynthesis) validate that warm, noisy quantum processes outperform isolated ones when environmental coupling is properly shaped. We provide: (1) mathematical foundations via PRQ effective Hamiltonians and functorial collapse constraints, (2) design principles for engineering noise spectra and collapse pathways, (3) mesoscale fluid analogs as testbeds, and (4) falsifiable predictions distinguishing warm QC from traditional approaches. The framework requires no dilution refrigeration, extreme isolation, or long coherence times—only structured environments. This paradigm shift treats decoherence as a resource rather than an enemy, opening a path to scalable quantum computation that works with nature instead of against it.</p> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_17859354 |
| institution | Zenodo |
| language | eng |
| publishDate | 2025 |
| publisher | Zenodo |
| record_format | zenodo |
| spellingShingle | Warm Quantum Computing via Structured Decoherence: A Residue-Based Framework Linking PRQ Dynamics, Genesis Functors, and Quantum Biology Kruse, Christopher Grant warm quantum computing, structured decoherence, residue dynamics, pattern-resonant qualia, Genesis Functor, quantum biology, photosynthesis, environment-assisted quantum transport, collapse-based computation, open quantum systems, Lindblad dynamics, mesoscale analogs, noise engineering, attractor dynamics, quantum information Quantum Physics (quant-ph) • Quantum Information (cs.IT, quant-ph) <p>This paper unifies three independent theoretical modules—Residue Dynamics (R = αC²), Pattern-Resonant Qualia (PRQ) attractor theory, and the Genesis Functor—into a complete architecture for quantum computation at ambient temperature. Rather than fighting environmental decoherence, we engineer it as the primary computational mechanism. Collapse is not destructive erasure but structured computation: guided sequences of collapses encode solutions in residue patterns. Biological systems (photosynthesis) validate that warm, noisy quantum processes outperform isolated ones when environmental coupling is properly shaped. We provide: (1) mathematical foundations via PRQ effective Hamiltonians and functorial collapse constraints, (2) design principles for engineering noise spectra and collapse pathways, (3) mesoscale fluid analogs as testbeds, and (4) falsifiable predictions distinguishing warm QC from traditional approaches. The framework requires no dilution refrigeration, extreme isolation, or long coherence times—only structured environments. This paradigm shift treats decoherence as a resource rather than an enemy, opening a path to scalable quantum computation that works with nature instead of against it.</p> |
| title | Warm Quantum Computing via Structured Decoherence: A Residue-Based Framework Linking PRQ Dynamics, Genesis Functors, and Quantum Biology |
| topic | warm quantum computing, structured decoherence, residue dynamics, pattern-resonant qualia, Genesis Functor, quantum biology, photosynthesis, environment-assisted quantum transport, collapse-based computation, open quantum systems, Lindblad dynamics, mesoscale analogs, noise engineering, attractor dynamics, quantum information Quantum Physics (quant-ph) • Quantum Information (cs.IT, quant-ph) |
| url | https://doi.org/10.5281/zenodo.17859354 |