Paper α–ΩQ: The Holosphere Theory of Time as Captured Admissible Reconfiguration From Entropy Clocks and Causal Reach to Public Support-Conditioned Timing Memory
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2026
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| _version_ | 1866902028541755392 |
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| author | Sarnowski, Michael |
| author_facet | Sarnowski, Michael |
| contents | <p>Paper alpha-Omega Q presents the second-generation Holosphere theory of time. The paper argues that time should not be treated as raw change, raw delay, memory alone, or simple route reachability. Instead, readable time is defined as ordered captured admissible reconfiguration on clean support. A timing record becomes meaningful only when it passes the event-time stack: event record, memory support, motif identity, route health, membrane or front eligibility, and clean timing-mass capture. Failed support is not treated as slow time; it is blocked as unreadable timing support.</p> <p>The paper also develops the clock bridge. A clock tick is defined as a stable captured admissible reconfiguration, not as arbitrary change. Internal clock accumulation is modeled by captured tick count, and the first candidate burden-rate law, Model K1, states that readable coherence burden suppresses captured tick frequency. The paper treats this model as an internally tested bridge, not as a final universal physical clock law.</p> <p>The public timing bridge is carried forward from the alpha-Omega M through P sequence. NANOGrav 15-year residuals and EPTA DR2 residuals show ordered same-source residual memory under held-out prediction and broken-history nulls. In EPTA DR2, the memory strengthens when support context is continuous, especially under same system, same band, same observatory, and same flag-system histories. These results do not prove Holosphere time or rule out standard pulsar timing explanations. They establish a bounded public-data target: timing residuals contain ordered, source-specific, support-conditioned memory.</p> <p>The paper does not claim a completed derivation of relativistic proper time, a final gravitational time-dilation law, or a unique explanation of pulsar residuals. Its main contribution is more disciplined: it identifies the internal object that any future physical time law must map. Readable Holosphere time is captured admissible event order on clean support, and public timing data show stateful memory consistent with that support-based view.</p> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_20352356 |
| institution | Zenodo |
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| publishDate | 2026 |
| publisher | Zenodo |
| record_format | zenodo |
| spellingShingle | Paper α–ΩQ: The Holosphere Theory of Time as Captured Admissible Reconfiguration From Entropy Clocks and Causal Reach to Public Support-Conditioned Timing Memory Sarnowski, Michael Holosphere Theory; event-time; admissible reconfiguration; captured timing mass; clean support; entropy clocks; clock ticks; coherence burden; Model K1; readable time; support-conditioned memory; pulsar timing residuals; NANOGrav; EPTA DR2; broken-history nulls; metadata-conditioned memory; proper-time bridge; theory of time. <p>Paper alpha-Omega Q presents the second-generation Holosphere theory of time. The paper argues that time should not be treated as raw change, raw delay, memory alone, or simple route reachability. Instead, readable time is defined as ordered captured admissible reconfiguration on clean support. A timing record becomes meaningful only when it passes the event-time stack: event record, memory support, motif identity, route health, membrane or front eligibility, and clean timing-mass capture. Failed support is not treated as slow time; it is blocked as unreadable timing support.</p> <p>The paper also develops the clock bridge. A clock tick is defined as a stable captured admissible reconfiguration, not as arbitrary change. Internal clock accumulation is modeled by captured tick count, and the first candidate burden-rate law, Model K1, states that readable coherence burden suppresses captured tick frequency. The paper treats this model as an internally tested bridge, not as a final universal physical clock law.</p> <p>The public timing bridge is carried forward from the alpha-Omega M through P sequence. NANOGrav 15-year residuals and EPTA DR2 residuals show ordered same-source residual memory under held-out prediction and broken-history nulls. In EPTA DR2, the memory strengthens when support context is continuous, especially under same system, same band, same observatory, and same flag-system histories. These results do not prove Holosphere time or rule out standard pulsar timing explanations. They establish a bounded public-data target: timing residuals contain ordered, source-specific, support-conditioned memory.</p> <p>The paper does not claim a completed derivation of relativistic proper time, a final gravitational time-dilation law, or a unique explanation of pulsar residuals. Its main contribution is more disciplined: it identifies the internal object that any future physical time law must map. Readable Holosphere time is captured admissible event order on clean support, and public timing data show stateful memory consistent with that support-based view.</p> |
| title | Paper α–ΩQ: The Holosphere Theory of Time as Captured Admissible Reconfiguration From Entropy Clocks and Causal Reach to Public Support-Conditioned Timing Memory |
| topic | Holosphere Theory; event-time; admissible reconfiguration; captured timing mass; clean support; entropy clocks; clock ticks; coherence burden; Model K1; readable time; support-conditioned memory; pulsar timing residuals; NANOGrav; EPTA DR2; broken-history nulls; metadata-conditioned memory; proper-time bridge; theory of time. |
| url | https://doi.org/10.5281/zenodo.20352356 |