IndisputableMonolith.RecogGeom.Examples
The Examples module supplies concrete finite instances of configuration spaces and recognizers to illustrate the abstract Recognition Geometry framework. It defines Fin n (n ≥ 2) as the configuration space together with discrete, sign, and magnitude recognizers, then derives basic indistinguishability and quotient properties. Researchers testing discrete models of recognition maps would cite these examples to check how resolution cells emerge. The module consists of definitions and short lemmas that instantiate the core axioms without deep case
claimLet $C = {0,1,…,n-1}$ be the finite configuration space for integer $n≥2$. A recognizer $R:C→E$ induces the indistinguishability relation $x∼_R y$ iff $R(x)=R(y)$. The quotient $C_R=C/∼_R$ consists of the resolution cells. Discrete, sign, and magnitude recognizers are exhibited as concrete maps on $C$.
background
Recognition Geometry derives spatial structure from recognition maps rather than taking space as primitive. The Core module supplies the basic types for configurations C and events E. The Recognizer module defines a recognizer as any function R:C→E. The Indistinguishable module introduces the induced equivalence x∼_R y when R(x)=R(y), whose classes are the smallest distinguishable units. The Quotient module collapses C to the recognition quotient C_R=C/∼_R.
proof idea
This is a definition module, no proofs.
why it matters in Recognition Science
The module feeds the Integration module that assembles the complete Recognition Geometry framework. It supplies explicit models that realize axioms RG2 (recognizers map configurations to events) and RG3 (indistinguishability partitions into resolution cells), confirming that geometric structure can arise from lossy recognition maps on finite sets.
scope and limits
- Does not treat continuous or infinite configuration spaces.
- Does not derive physical constants, dimensions, or the forcing chain T0-T8.
- Does not contain numerical simulations or empirical validation.
- Does not address general theorems beyond the listed finite examples.
used by (1)
depends on (4)
declarations in this module (21)
-
instance
finConfigSpace -
def
discreteRecognizer -
theorem
discrete_indist_iff_eq -
theorem
discrete_singleton_cells -
inductive
Sign -
def
signOf -
def
signRecognizer -
theorem
sign_indistinguishable -
theorem
neg_indist -
theorem
neg_pos_dist -
theorem
zero_pos_dist -
def
magnitudeRecognizer -
theorem
magnitude_indistinguishable -
theorem
plus_minus_indist -
theorem
diff_magnitude_dist -
theorem
sign_distinguishes_3_neg3 -
theorem
magnitude_indist_3_neg3 -
theorem
sign_indist_3_5 -
theorem
magnitude_distinguishes_3_5 -
theorem
composition_refines -
def
examples_status