PFUSRC-147 The Damped Topological Imprint of the Cosmic Filamentary Skeleton — CDM Paradigm Contradictions and PFUSRC Ontological Alternative Explanation Subtitle: From AI Anchor-Deficiency Oscillation to Large-Scale Spacetime Damped Imprints — Cross
Modern cosmological observations confirm cosmic web structures, anomalous galactic rotation curves, gravitational lensing and cosmic acceleration, which jointly bring forward the longstanding puzzles of dark matter and dark energy. The ΛCDM cold dark matter paradigm has dominated cosmology for decades, yet continuous high-precision sky surveys repeatedly expose chronological inconsistencies, scale conflicts and severe parameter fine-tuning issues. In recent years, Western academia has gradually softened rigid particle-centric assumptions by introducing viscosity and dissipation corrections, while Eastern theoretical and astronomical communities maintain divergent interpretive frameworks for invisible cosmic mass. This paper adopts a three-part argumentative structure. It first systematically sorts out the internal logical framework of the standard CDM paradigm for cosmic filaments, dark matter and dark energy. Second, it analyzes the cumulative patchwork revisions of CDM against upgraded observational data, compares Eastern-Western cognitive divergences, and summarizes the implicit paradigm shift within Western academia. Third, grounded in PFUSRC seven-layer ontology and the 45° double-cone topological flow framework, this work puts forward a full ontological alternative: the cosmic filamentary skeleton does not arise from aggregated cold particles, but permanent damped topological imprints embedded within spacetime medium during inflation and global cosmic evolution; dark matter and dark energy are two scale-dependent manifestations of an identical topological medium. This paper emphasizes that all core conclusions of PFUSRC (dark matter, dark energy, black holes etc.) are definitive one-step deductions derived from the L4 ontological layer, rather than iterative fitting conjectures. The cognitive gap originates from hierarchical differentiation: reasoning downwards from the L4 dispatch layer yields deterministic judgments, while data fitting confined to L5–L7 phenomenal layers leads to ambiguous hypotheses. A three-layer cross-scale isomorphic verification matrix is constructed, unifying PFUSRC-011 (AI anchor-deficiency oscillation), PFUSRC-080 (Collatz conjecture topological projection) and the present dark matter theory. All three phenomena stem from identical "ontological anchor deficiency" logic at cognitive, number-theoretic and cosmic observation layers, forming a complete cross-scale evidential chain. Combined with PFUSRC-132G black hole topological positioning, this paper develops a full thermodynamic description of black hole skins: event horizons represent limit-state damped imprints formed via TSRD topological closure. Their ultra-low vacuum temperature comes from steady-state flow variable latching, while high-energy eruptions correspond to rhythmic topological clearance of incompatible flow phases. This clearance mechanism is isomorphic to the social-layer elimination logic defined in PFUSRC-144B. Long-term null results from global dark matter particle detectors serve as critical circumstantial evidence against particle ontology. This paper distinguishes hierarchical gaps between PFUSRC topological cosmology and Western viscous/emergent gravity modified models, clarifies the valid application scope of the CDM framework, and constructs a self-consistent closed argument resolving all major cosmological tensions. The core thesis: cosmic filamentary networks are damped topological imprints left by universal spacetime evolution, not aggregates of dark matter particles; dark matter and dark energy share a single topological medium origin.
Authors
- Zhenmin Wang (ORCID: https://orcid.org/0009-0002-7163-1603)
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2026-08-14
- DOI
- https://doi.org/10.5281/zenodo.21926432
- Primary Topic
- Space Science and Extraterrestrial Life
- Type
- article
- Field-Weighted Citation Impact
- 0.00