From 2024 to 2026, high-precision cosmological observations, high-energy physics detectors, and condensed matter quantum experiments have collectively formed a cross-scale, unified chain of anomalous evidence. The three foundational presuppositions of the ΛCDM standard cosmological model—static homogeneous spacetime, cold WIMP dark matter particles, and a constant cosmological constant—can no longer simultaneously accommodate macroscopic observations and microscopic experimental results. A systemic paradigm fracture is now fully evident. At the macroscopic level, the anomalies include a highly significant Hubble tension, a cluster of over-mature galaxies at ultra-high redshifts (JWST), anomalously high-velocity galaxy cluster mergers, and a temperature offset in the epoch of reionization (EDGES). At the microscopic level, they include a global null result for GeV–TeV dark matter searches, topological oscillations in submillimeter gravity, a scale-dependent vacuum energy effect, superfluid dark matter vortex behavior, and quantum-level metric shifts. This paper systematically completes a macro–micro cross-validation of the evidence, demonstrating that the core difficulties of mainstream physics originate from the inherent limitations of its single-layer, static spacetime ontology. By leveraging the PFUSRC 11-dimensional triple coaxial 45° biconical topology, hierarchical phase rheology, global β₁ field coupling, the 55-curvature-anchor skeleton, and the 12/11 topological gauge ratio, this framework naturally and consistently accommodates all cross-scale anomalies without introducing any ad hoc assumptions. It provides a complete observational and experimental foundation for the next-generation topological paradigm in fundamental physics.
Zhenmin Wang (Sat,) studied this question.