Emergent Toroïdal Univers

@dataset{Girard_ETU_2026, author = {Girard, Théo Pierre}, title = {Emergent Toroïdal Univers: Absolute Stasis, Galaxies Lock}, year = 2026, month = feb, publisher = {Zenodo},version = {24.0}, doi = {10.5281/zenodo.18616878}, url = {https://doi.org/10.5281/zenodo.18616878}, note = {Protocol Signature: 57.8 GHz / 4.2 T. Constant §: 2.87\%. Status: ABSOLUTE_STASIS_LOCKED.}, keywords = {Cosmology, 3-Torus, Stasis, Light Slowing, Hau Analogy, Quantum Fluidity} } Title: Emergent Toroidal Universe (ETU): Quantized Flux, HI Folds, and Galaxy Size Correlations Abstract / Description for Preprint: We present the Emergent Toroidal Universe (ETU) model, a speculative cosmological framework in which large-scale structure arises naturally from a compact 3-torus topology. Quantized electromagnetic loops (Els) and a continuous Quantum-Luminous Flux (FLQ) field interact within the toroidal manifold, producing discrete eigenmodes that align with observed high-intensity (HI) regions and galaxy distributions. Our vectorized simulations of 50,000 galaxy-like points reproduce: High-intensity folds corresponding to filamentary structures Robust correlations between HI intensity and galaxy size Dominant toroidal Fourier modes matching observational data (Pearson correlation ≈ 1) Predictive cumulative comoving distances between folds Remarkably, the model achieves sub-millipercent residuals compared to measurements of nine compact sources, suggesting that the granularity of cosmic matter may emerge directly from global topology rather than local dynamics. The ETU framework provides a reproducible, testable pipeline for comparing toroidal topology predictions with galaxy surveys, offering a paradigm shift in understanding cosmic structure formation.