0.11 — Fabric-Fusion Plateau

Fabric-Fusion Plateau (FFP)

Near the end of the formation epoch, persistent proton Regions and Emeon-family closure states enter the Fabric-Fusion Plateau (FFP), where multi-cell coherence becomes the dominant pathway for curvature reduction. Protons are already strongly closed structures. The Emeon family occupies terminal electron closure together with non-terminal resolved closure states of the same underlying Emeon-plus-three-Zeteon inventory.

The plateau is an ionized, high-exchange environment rather than a settled atomic stage. Closed protons encounter terminal and non-terminal Emeon-family Regions. Couplings form, separate, change closure state, decay, collide, and reconfigure while curvature and phase move through the dormant corridor network.

Where closure geometry permits, a proton couples to an appropriate non-terminal Emeon-family state, particularly \(EZZ\), to form a neutron composite. The (EZZ) designation identifies closure state, not a reduced Zeteon inventory. Neutrons can form and be lost while temporary nuclear groupings enter the light-element pathway network.

Helium-4 is the first fully closed multi-nucleon Region. Its closure provides a persistent curvature-relief path that the temporary couplings and disrupted groupings do not. As that exchange continues, active Region curvature and the dormant-corridor mean approach parity.

Freeze-Out occurs when the remaining curvature contrast can no longer sustain formation-scale restructuring. Stable proton–electron corridor coupling and durable protium belong to the calmer post Freeze-Out universe; protium is not the dominant object or fusion feedstock of the plateau.

The light-element relationships on the Formation page are qualitative closure pathways. They do not by themselves assign reaction rates, production probabilities, temperature dependence, or primordial abundance predictions.