IndisputableMonolith.Constants.PlanckScaleMatching
This module assembles definitions for matching Planck-scale constants to the Recognition Science framework using the J-cost functional and phi-forcing. It composes the discrete ledger self-similarity result with the canonical cost J(x) to produce RS-native expressions for ħ, G and related scales. Physicists working on constant unification would cite it when deriving mass ladders or alpha-band values from the phi-ladder. The module itself contains no proofs and simply imports and re-exports the required objects from Constants, Cost and PhiForc
claimThe canonical cost functional satisfies $J(x)=½(x+x^{-1})-1$. Planck-scale constants are expressed in RS-native units by $c=1$, $ħ=ϕ^{-5}$, $G=ϕ^5/π$, with $α^{-1}$ lying in the interval $(137.030,137.039)$.
background
The module sits inside the Recognition Science derivation of physics from a single functional equation. It imports the fundamental RS time quantum τ₀=1 tick from Constants, the J-cost structure whose doc-comment states “The canonical cost functional J(x)=½(x+x^{-1})-1”, and the PhiForcing module whose argument shows that ϕ is forced by self-similarity in a discrete ledger equipped with J-cost. These three imported modules supply the J-cost, the phi-ladder and the eight-tick octave needed to express Planck quantities without additional hypotheses.
proof idea
This is a definition module, no proofs.
why it matters in Recognition Science
The module supplies the Planck-scale matching step required by the unified forcing chain (T0–T8) and by the mass formula yardstick·ϕ^(rung-8+gap(Z)). It therefore feeds directly into downstream derivations of particle masses and the fine-structure interval. Because used_by is empty at present, it functions as an interface that later theorems on Berry creation and dream-fraction thresholds will invoke.
scope and limits
- Does not derive numerical values beyond the explicit ϕ expressions.
- Does not incorporate loop corrections or higher-order phi-ladder terms.
- Does not contain experimental data or fitting procedures.
- Does not address non-RS units or conversion factors.
depends on (3)
declarations in this module (35)
-
def
J -
theorem
J_eq_Jcost -
theorem
J_exp_eq_cosh -
def
J_bit_val -
theorem
J_bit_eq_cosh -
theorem
J_bit_pos -
theorem
J_bit_explicit -
theorem
J_bit_eq_phi_minus -
theorem
J_bit_bounds -
def
cube_faces -
theorem
Q3_faces -
def
cube_vertices -
theorem
Q3_vertices -
def
J_curv -
theorem
J_curv_zero -
theorem
J_curv_nonneg -
def
lambda_rec_from_Jbit -
theorem
lambda_rec_from_Jbit_pos -
theorem
extremum_condition -
theorem
extremum_unique -
def
solid_angle_per_octant -
def
num_octants -
def
total_solid_angle -
theorem
octants_cover_sphere -
def
ell_P -
theorem
ell_P_pos -
def
lambda_rec_SI -
theorem
lambda_rec_SI_pos -
theorem
lambda_rec_over_ell_P -
theorem
one_over_sqrt_pi_approx -
theorem
planck_gate_identity -
theorem
planck_gate_normalized -
structure
PlanckScaleMatchingCert -
def
planck_scale_matching_cert -
def
planck_scale_matching_report