pith. sign in
module module high

IndisputableMonolith.Unification.RecognitionBandGeometry

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The RecognitionBandGeometry module defines the lower and upper boundaries of the recognition band as ρ_min = φ^{-2} and ρ_max = 1 - φ^{-2}. It supplies the geometric interval for the load ratio ρ in unification models. Researchers analyzing critical recognition loading cite these bounds to delimit operating regimes. The module consists of direct definitions followed by algebraic verifications of positivity, ordering, and complementarity.

claim$ρ_{band,lower} = φ^{-2}$, $ρ_{band,upper} = 1 - φ^{-2}$, with $ρ_{band,lower} > 0$, $ρ_{band,upper} < 1$, $ρ_{band,lower} < ρ_{band,upper}$, and $ρ_{band,lower} + ρ_{band,upper} = 1$.

background

Recognition Science parameterizes operating points via the load ratio ρ = R_dem / R_max inside a recognition bandwidth. The imported Constants module fixes the base time quantum as τ₀ = 1 tick, anchoring the discrete structure. This module introduces the band boundaries ρ_min = φ^{-2} and ρ_max = 1 - φ^{-2}, where φ denotes the self-similar fixed point from the forcing chain.

proof idea

This is a definition module. It sets rhoBandLower to φ^{-2} and rhoBandUpper to its complement, then verifies the listed equalities and inequalities by direct substitution and elementary properties of φ.

why it matters in Recognition Science

The band geometry supplies the concrete interval for ρ inside the control theorem of CriticalRecognitionLoading. That module sketches the operating regime for recognition bandwidth and the semantic condensation gate using these bounds. It thereby connects the phi-ladder geometry to the unification control variable.

scope and limits

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declarations in this module (16)