Cosmic Morphogenesis from Pre-Mass Torsional Geometry: A G-MaTT Explanation of Large-Scale Structure

Abstract We explain the origin of cosmic large-scale structure—voids, filaments, clusters, and anisotropies—not as random quantum fluctuations, but as the frozen imprint of pre-mass torsional geometry at the initiation epoch. In Generalized Mass as Twisted Time (G-MaTT), the Big Bang is a topological phase transition in the primordial mass torsional field \(\mathcal{M}_\mu\), where swing (amplitude), spin (orientation), and twist (winding number) of \(\mathcal{M}_\mu\)-branches determine the fate of cosmic regions. High-swing, high-twist branches become galaxy clusters; low-swing, low-twist branches become cosmic voids. This mechanism: Predicts the observed filamentary cosmic web as braided \(\mathcal{M}_\mu\)-bundles with co-aligned spin,Explains anomalous cold spots and dipole asymmetries as residual torsional phase gradients,Eliminates the need for inflationary quantum noise or particle dark matter,Is falsifiable via LISA (torsion-modulated GWs), CMB-S4 (non-Gaussian polarization), and DUNE (void-induced neutrino decoherence). This work completes G-MaTT’s cosmological program, transforming cosmic structure from statistical accident into topological destiny.