Fabric-Fusion Plateau (FFP)
Near the end of the formation epoch, the emergence of Regions launches the Fabric-Fusion Plateau (FFP), where multi-cell coherence becomes the dominant pathway for curvature reduction. At this stage, combination is more common than CPP redistribution, and the Dormant Corridor is nearing a mean amplitude of stability.
At first, the dominant event is the capture of electrons by protons, creating what is now called protium. These combinations are frequently short lived. As curvature continues to settle, the mean amplitude of the lattice \(A_k\) continues to decrease, while the Dormant Corridor mean amplitude \(\bar{A}\) continues to increase.
The Regions begin to combine into lower-curvature states through combination of protium. This event is known as fusion, and its first product is helium.
This fusion process provides the last curvature relief of the fabric into the Dormant Corridors. When the corridor mean amplitude \(\bar{A}\) rises to the same value as the lattice mean amplitude \(\bar{A}_k\), the transition called the Freeze-Out (FO) begins, where the last curvature imbalances are resolved.
After this point, the mean amplitudes remain fixed, stopping the fusion of hydrogen to helium and leaving the universe of today with about 25% more helium than that formed by stars. This corresponds to the familiar hydrogen-helium nucleosynthesis window.
Among the products of this process, helium represents the first configuration to achieve complete geometric closure of nucleon Regions.
Summary
- The emergence of Regions launches the Fabric-Fusion Plateau.
- Multi-cell coherence becomes the dominant pathway for curvature reduction.
- Electron-proton capture produces protium, the first atomic structure.
- As curvature settles, \(A_k\) decreases while \(\bar{A}\) increases.
- Protium combinations enter lower-curvature states through fusion.
- Helium is the first product of this fusion process.
- Freeze-Out begins when \(\bar{A}\) reaches the lattice mean amplitude \(\bar{A}_k\).
- Helium becomes the first configuration to achieve complete geometric closure of nucleon Regions.