IndisputableMonolith.Holography.CellInjection
Module defining the forced D=3 recognition cell: eight vertices, one bit each, packed as Fin 256 configurations. It supplies face records, flips, XOR, weights, zero/complement cells, and single-flip posting lemmas. Holography authors cite it as the cell-injection test (entropy-fork step 1). Structure is definitional plus elementary flip lemmas, not a deep existence proof.
claimOn the forced $D=3$ cell with $8=2^3$ vertices, a full-cell configuration assigns one recognition bit to each vertex and is identified with an element of $\mathrm{Fin}\,256$. Vertex $v\in\mathrm{Fin}\,8$ has coordinate bits $(v\&1,\,v\&2,\,v\&4)$. The module defines face records of such configurations, single-vertex and face flips, XOR of configurations, Hamming weight, the zero cell and its complement, and lemmas controlling how a single flip posts to face records.
background
Recognition Science forces $D=3$ spatial dimensions (T8) and an eight-tick octave of period $2^3$ (T7). The elementary holographic cell is therefore the 3-cube: eight vertices, each carrying one recognition bit.
A full-cell configuration packs those eight bits into $\mathrm{Fin},256$. Coordinate bits of vertex $v$ are read by the masks $v&1$, $v&2$, $v&4$. Face records project a bulk configuration onto a chosen face; flips and XOR act pointwise on bits; weight is the number of set bits. The zero cell is the all-off assignment and the complement inverts every bit.
This module is step 1 of the entropy-fork chain (panel holo_unconditional_20260701): the cell-injection test that later supports weak complementarity.
proof idea
Definition module with supporting lemmas, not a single theorem proof. It introduces the configuration type and the operations vbit, closedOn, faceRecord, flipv, xorCfg, weight, cell0, cellComplement, and faceFlip. The nontrivial content is the single-flip posting lemmas (including the three-face variant): they track how flipping one bulk vertex changes the recorded face data. Those identities are pure finite bit arithmetic on Fin 8 / Fin 256 and are discharged by direct case or card reasoning.
why it matters in Recognition Science
Imported by RecordMonotonicity, step 3 of the entropy-fork development ("no free erasure $\Rightarrow$ weak complementarity on the forced cell"). Downstream documentation states explicitly that step 1 was the cell-injection test in this module and step 2 the Clausius selector. The holography manuscript treats recognition complementarity as its strongest premise and isolates the minimal form: weak complementarity, an injection from physical bulk states into boundary records. By fixing the T7/T8 eight-vertex cell and the face-record map, the module supplies the discrete geometry on which that injection is later proved.
scope and limits
- Does not prove weak complementarity or bulk-to-boundary injection; that is RecordMonotonicity.
- Does not derive D=3 or the eight-tick period; it assumes the forced cell from T7/T8.
- Does not treat multi-cell lattices, gluing, or continuum bulk fields.
- Does not encode dynamics or time evolution of configurations.
- Does not address strong complementarity or full holographic entropy equalities.
used by (1)
declarations in this module (28)
-
abbrev
CellCfg -
def
vbit -
def
closedOn -
def
faceRecord -
def
flipv -
def
xorCfg -
def
weight -
def
cell0 -
def
cellComplement -
def
faceFlip -
theorem
single_flip_posts -
theorem
single_flip_posts_three -
theorem
complement_invisible -
theorem
record_not_injective -
def
recordKernel -
theorem
recordKernel_card -
theorem
recordKernel_eq -
theorem
record_image_card -
theorem
record_rank_eq_four -
theorem
record_nullity_eq_four -
theorem
record_image_times_kernel -
theorem
record_blind_only_global -
theorem
face_flip_invisible_everywhere -
theorem
faceFlip_weight -
theorem
invisible_iff_kernel -
def
target_cell_injection -
theorem
target_cell_injection_holds -
theorem
cellInjectionCert