IndisputableMonolith.Unification.CriticalRecognitionLoading
This module defines the native actuation period together with pulseTicks, supervisoryTicks, loadRatio, and the predicates IsUnderloaded, IsSubcritical, IsOverloaded, InCriticalBand, and rhoCriticalMin. Researchers working on holographic bounds and 8-tick recognition cycles cite it to locate critical loading regimes. The module is a collection of definitions and short lemmas that relate the basic tick to its supervisory multiple via lcm and establish the critical-band threshold.
claimLet τ₀ = 1 be the RS time quantum. Define pulseTicks as the base actuation interval, supervisoryTicks as its least common multiple with the 8-tick octave, loadRatio = pulseTicks / supervisoryTicks, and the predicates IsUnderloaded, IsSubcritical, IsOverloaded, InCriticalBand together with the threshold ρ_crit^min such that a boundary lies in the critical band precisely when its recognition load satisfies ρ_crit^min ≤ loadRatio < 1.
background
Constants supplies the fundamental time quantum τ₀ = 1 tick. RecognitionBandwidth records the 8-tick cadence of the recognition operator, the holographic information bound, and the per-bit cost ln(φ). ConsciousnessBandwidth states that a conscious boundary of extent L persisting for τ ticks incurs a maintenance cost bounded by the holographic budget. RecognitionBandGeometry supplies the geometric setting in which these costs are compared across recognition bands. The present module assembles these elements into explicit loading predicates.
proof idea
this is a definition module, no proofs
why it matters in Recognition Science
The definitions supply the critical-band conditions required by the unification of recognition and consciousness bandwidths. They close the gap between the 8-tick octave (T7) and the holographic constraint on conscious extent, preparing the ground for any later theorem that derives stability or phase-transition behavior inside the critical band.
scope and limits
- Does not derive ρ_crit^min from the holographic bound.
- Does not prove that any physical system actually reaches the critical band.
- Does not address time evolution or stability inside the band.
- Does not connect loadRatio to measurable observables beyond the RS-native units.
depends on (4)
declarations in this module (29)
-
def
pulseTicks -
def
supervisoryTicks -
theorem
supervisoryTicks_eq -
theorem
supervisoryTicks_is_lcm -
theorem
pulse_divides_supervisory -
def
loadRatio -
def
IsUnderloaded -
def
IsSubcritical -
def
IsOverloaded -
def
InCriticalBand -
abbrev
rhoCriticalMin -
theorem
rhoCriticalMin_eq -
def
InForcedCriticalBand -
theorem
loadRatio_pos -
theorem
criticalBand_implies_subcritical -
theorem
criticalBand_not_overloaded -
def
semanticFreeEnergy -
theorem
higher_entropy_lowers_freeEnergy -
theorem
higher_berry_lowers_freeEnergy -
def
SemanticCondensationGate -
theorem
semanticGate_implies_attention_cap -
theorem
semanticGate_implies_gap_ready -
structure
ControllerState -
def
IsCriticalRecognitionLoading -
def
IsForcedCriticalRecognitionLoading -
def
loadPenalty -
theorem
loadPenalty_zero_of_critical -
theorem
criticalRecognitionLoading_certificate -
theorem
forcedCriticalRecognitionLoading_certificate