Mean Amplitude Definition
The dormant corridor mean amplitude \(\bar{A}\) is the reference amplitude of the post Freeze-Out dormant fabric. It defines the zero-curvature level against which local amplitude departures are measured.
A lattice cell or Region at \(\bar{A}\) contributes no curvature departure. Curvature appears only where a stable Region, transport packet, void, or composite structure departs from this dormant reference level.
Vacuum-Density Mapping
The dormant corridor mean is mapped through the empirical vacuum energy density and the King coherence-cell volume. This provides the measured comparison bridge for the post Freeze-Out background amplitude.
The value \(\rho_{\mathrm{vac}}\) enters as the SI bridge for comparison. The native curvature framework remains expressed through amplitude departure from \(\bar{A}\).
King-Cell Volume
Using the King coherence length from §2.1, the coherence-cell volume is:
This volume supplies the SI projection cell used to express the dormant corridor mean amplitude as energy per coherence cell.
Dormant Mean Value
Substituting the vacuum-density bridge and the King-cell volume gives:
Converting to electron-volts:
Expressed in the \(L_0\)-based amplitude ledger:
Role in Curvature Accounting
The dormant corridor mean is the baseline from which curvature response is measured. Region curvature, photon transport, compact-body curvature, and large-scale curvature response all depend on departure from this reference.
This sequence connects the dormant amplitude reference to closed-Region inventory and the distance-sampled curvature response used later in the framework.
Summary
The dormant corridor mean amplitude \(\bar{A}\) defines the zero-curvature reference level of the post Freeze-Out fabric. Curvature is measured as departure from this value through \(\Delta A=A-\bar{A}\).
Using \(\rho_{\mathrm{vac}}\approx5.36\times10^{-10}\,\mathrm{J\,m^{-3}}\) and \(\lambda_k^3=2.217197587\times10^{-59}\,\mathrm{m^3}\), the mapped dormant mean is \(\bar{A}=1.188417907\times10^{-68}\,\mathrm{J}\) per cell, or \(7.417521150\times10^{-50}\,\mathrm{eV}\) per cell.