IndisputableMonolith.Foundation.RecognitionLatticeFromRecognizer
The module constructs the recognition lattice as the quotient setoid induced by a primitive interface, with configurations identified exactly when the interface outputs the same event. Researchers tracing the recognition-to-geometry steps in the forcing chain cite it after the observer construction. It assembles the lattice via imported results on interfaces and arithmetic, then proves basic lattice properties and cell-labeling lemmas.
claimLet $I$ be a primitive interface. Define the setoid $\sim_I$ on configurations by $c_1 \sim_I c_2$ if and only if $I(c_1)=I(c_2)$. The recognition lattice is the quotient set equipped with the induced lattice operations and neighborhood structure.
background
This module follows ObserverFromRecognition, whose doc states that non-trivial recognition forces an interface and that an interface is the primitive observer. It also imports ArithmeticFromLogic. The central object is the interfaceSetoid, whose equivalence classes are the kernels of the interface map. RecognitionLattice then turns the quotient into a lattice whose cells carry labels and neighborhoods.
proof idea
This is a definition module. It introduces interfaceSetoid, RecognitionLattice, cellOf, neighborhood, and the supporting lemmas cellLabel_cellOf, every_cell_has_label, and nontrivial_recognition_forces_lattice by direct construction from the imported interface and arithmetic primitives.
why it matters in Recognition Science
The module supplies the lattice geometry required by the root IndisputableMonolith module for the master forcing-chain theorem. It completes the transition from the primitive observer (interface) to the discrete lattice that later yields the eight-tick octave and D=3. The downstream doc describes the umbrella exposing the T-1 through T8 surfaces.
scope and limits
- Does not derive the full T0-T8 forcing chain.
- Does not supply physical interpretations of cells or labels.
- Does not address embeddings into continuous space.
- Does not prove uniqueness of the lattice up to isomorphism.
used by (1)
depends on (2)
declarations in this module (22)
-
def
interfaceSetoid -
def
RecognitionLattice -
def
cellOf -
theorem
cell_eq_iff_kernel -
def
cellLabel -
theorem
cellLabel_cellOf -
def
neighborhood -
theorem
cell_mem_own_neighborhood -
theorem
every_cell_has_label -
theorem
nontrivial_recognition_forces_lattice -
def
pointLattice -
def
SameKernel -
def
latticeEquivOfSameKernel -
theorem
latticeEquivOfSameKernel_cell -
def
iteratedCarrier -
def
logicNatToLattice -
theorem
logicNatToLattice_zero -
theorem
logicNatToLattice_step -
theorem
logicNat_interprets_into_lattice -
structure
RecognitionLatticeCert -
def
recognitionLatticeCert -
theorem
recognitionLatticeCert_inhabited