Recoherence Beyond Decoherence: ANITA as Evidence for Ghost Dark Matter in the Universal Gravitational Informational Theory (TGIU)

We present a novel interpretation of the anomalous upward-going EeV events detected by the Antarctic Impulsive Transient Antenna (ANITA). While the Standard Model (SM) treats these events as impossible for neutrinos — or speculates about exotic dark matter candidates — we propose, within the framework of the Universal Gravitational Informational Theory (TGIU), that they are signatures of Ghost Dark Matter (GDM) undergoing informational recoherence. Contrary to quantum mechanics’ orthodox view that decoherence is irreversible, TGIU predicts that recoherence is possible under strict conditions: sub-Chrona intervals (Delta_t < 1.24 × 10^-143, s), sub-critical informational potential (Delta_Phi < Delta_Phi_C_crit), and near-zero entropy flow The restoration of order is fundamentally bounded by the universal entropy efficiency η = 0.783. We argue that ANITA’s “impossible neutrinos” are not particles crossing the Earth in 3D spacetime, but fluxes entering 2D collapse windows and re-emerging recoherent as detectable radio impulses. This interpretation offers a causal ontology for the anomalies, positioning ANITA as the first macroscopic experimental evidence of recoherence. Key predictions include: • Sub-pulse phase rigidity between antennas, bounded by η. • Polarimetric stability exceeding scattering models, capped at 0.783. • Group compression at exit (narrower impulses than expected). • Absence of PNCP signatures (natural GDM vs artificial GDE). • Directional anisotropy correlated with local ∇Φ geology. Falsifiability arises naturally: recoherence above η, or requiring observables > Chrona, would falsify this formulation of TGIU. This framework unifies phenomenological anomalies (ANITA) with ontological collapse physics (TGIU), and provides a pathway for reanalysis of archival ANITA data using recoherence kernels, group compression tests, and ∇Φ anisotropy mapping. If confirmed, ANITA would not merely detect neutrino-like anomalies, but demonstrate that decoherence is not final — recoherence exists, bounded, and measurable.