Cross-Registration Consequence Networks in Canonical ACRF-4: Receiver-Conditioned Edge Constitution, Boundary-Controlled Criticality, and a Percolation Conjecture
Constructs an effective consequence network directly from receiver-conditioned canonical ACRF-4 dynamics and shows that the non-gauge mean channel and retained shared boundary materially control the resulting network operator.
Scope
The exact ACRF-4 inputs are the two-channel receiver boundary field, receiver quotient, matched receiver-isolated intervention, mean-channel gauge no-go, and finite-amplitude receiver-conditioned quotient dynamics. The reported network-operator values are computational results for the declared 12,000-state reference ensemble, normalized quotient metric, eight-bin finite projection, and outward branching number b=2. The spectral-radius threshold is standard multitype branching mathematics; the current operator tracks consequential incidence rather than complete successor-state propagation. The Cross-Registration Successor Kernel and the stronger Cross-Registration Percolation statement remain theorem/conjecture targets.
Abstract
Registration Theory treats physical registration as a dynamically consequential relation. This paper defines an effective consequential edge from the invariant receiver difference between the canonical ACRF-4 successor and a matched receiver-isolated intervention, then constructs a finite-type cross-registration reproduction operator. In a declared admissible-state ensemble, removal of the exact non-gauge mean channel shifts the operator from rho=1.02091 to rho=0.61267 at a common receiver resolution, while low versus high retained-boundary organization shifts rho from 0.53974 to 1.40048. The paper identifies these RT-internal controls, rather than the standard spectral-radius criterion itself, as the substantive contribution, and defines the Cross-Registration Successor Kernel as the next theorem target for true successor-state propagation.
Relation to other papers
- Builds on Canonical Foundations of Registration Theory
- Builds on Finite-Amplitude Permutation-Quotient Dynamics
- Builds on Particle–Field Trinity Conjugacy
- Builds on Retained History as a Determinant of Boundary Action
- Builds on Six-Mode Host Consequence Structure
- Builds on Consequential Closure Diagnostic
- Extended by Bilateral Participatory Registration in ACRF-4
- Extended by Compact Closure and Noncompact Conjugate Escape
Relevant research claims
Keywords
- Registration Theory
- ACRF-4
- cross-registration
- receiver-conditioned consequence
- consequential networks
- retained boundary
- boundary consequence
- network criticality
- multitype branching
- spectral radius
- percolation
- Cross-Registration Successor Kernel
- physical coarse-graining