IndisputableMonolith.Cosmology.EtaBPrefactorDerivation
This module derives the identity φ^8 = 21φ + 13 by iterated substitution from φ^2 = φ + 1, supplying the algebraic prefactor for the baryon asymmetry η_B. Researchers evaluating the phi-ladder in the T6 fixed-point and T8 cosmology sections cite it for numerical constants. Derivations are direct algebraic expansions that populate the sibling lemmas phi_pow_8_fib through c_RS_pos.
claim$\phi^8 = 21\phi + 13$ where $\phi$ satisfies $\phi^2 = \phi + 1$, together with the derived objects correctionFactor, c_RS, and c_RS_pos used for the η_B prefactor.
background
The module resides in the Cosmology domain and imports τ₀ = 1 tick from Constants plus the integration gap D²(D+2) = 45 at D = 3 from IntegrationGap. It works inside the self-similar fixed point T6 of the forcing chain, using the golden-ratio recurrence to build successive powers and the correction terms required for the eta_B worked example. The local setting is the eight-tick octave T7 and three spatial dimensions T8.
proof idea
This is a definition module, no proofs. The argument consists of repeated substitution of the base relation φ² = φ + 1 into higher powers, yielding the listed siblings phi_pow_8_fib, phi_pow_8_lower, correctionFactor, c_RS, and c_RS_pos by direct term collection.
why it matters in Recognition Science
The module supplies the φ^8 identity required by the root IndisputableMonolith module to close the two η_B worked-example modules cited in the companion paper. It supports numerical evaluation of cosmological constants inside the T5 J-uniqueness and T6 phi fixed-point steps of the forcing chain.
scope and limits
- Does not compute the numerical value of η_B itself.
- Does not derive the forcing-chain steps T0 through T8.
- Does not address the consciousness-gap interpretation of the integration gap.
- Does not import or use the Recognition Composition Law.
used by (1)
depends on (2)
declarations in this module (28)
-
theorem
phi_pow_8_fib -
theorem
phi_pow_8_lower -
theorem
phi_pow_8_upper -
lemma
phi_zpow_neg8_eq_inv -
theorem
phi_zpow_neg8_lower -
theorem
phi_zpow_neg8_upper -
def
correctionFactor -
def
c_RS -
theorem
c_RS_expanded -
theorem
one_minus_phi_neg8_lower -
theorem
one_minus_phi_neg8_upper -
theorem
c_RS_pos -
theorem
c_RS_lt_one -
theorem
c_RS_lower -
theorem
c_RS_upper -
theorem
phi_pow_fib -
theorem
phi_pow_44_fib -
lemma
phi_zpow_neg44_eq_inv -
theorem
phi_zpow_neg44_lower -
theorem
phi_zpow_neg44_upper -
def
eta_B_corrected -
theorem
eta_B_corrected_pos -
theorem
eta_B_corrected_lower -
theorem
eta_B_corrected_upper -
theorem
eta_B_corrected_in_observed_band -
theorem
observed_in_predicted_band -
structure
EtaBPrefactorCert -
theorem
etaBPrefactorCert