IndisputableMonolith.RSBridge.GapProperties
The GapProperties module extends the gap display function to real arguments and establishes its monotonicity, concavity, and increment properties. Researchers deriving forced lepton masses from the recognition framework cite these results when closing the T9 and T10 necessity arguments. The content consists of direct algebraic identities and applications of standard real-analysis facts from Mathlib.
claimThe real extension of the display function is $F(x) = \frac{\ln(1 + x/\phi)}{\ln\phi}$ for $x \in \mathbb{R}$, satisfying $F(0)=0$, strict monotonicity on $[0,\infty)$, and strict concavity on $[0,\infty)$.
background
The module sits inside the RSBridge layer and imports the gap definition from Anchor, where gap(F) is the display function $F(Z) = \ln(1 + Z/\phi)/\ln\phi$ that maps the charge index $Z_i = \tilde{q}^2 + \tilde{q}^4$ (+4 for quarks) to a logarithmic rung on the phi-ladder. Constants supplies the base time quantum $\tau_0 = 1$ tick. The real extension is introduced precisely to support concavity statements required by later mass-necessity proofs.
proof idea
This is a properties module establishing lemmas such as gap_zero, gap_eq_log_phi_add_sub_one, strictConcaveOn_gapR_Ici, gap_diminishing_increments, and gap_second_difference_neg through direct algebraic reduction and Mathlib real-analysis tactics.
why it matters in Recognition Science
Supplies the analytic properties of the gap function required by the T9 electron-mass necessity theorem in Physics.ElectronMass.Necessity and the T10 lepton-ladder necessity theorem in Physics.LeptonGenerations.Necessity. These downstream modules replace earlier axioms with inequalities derived from the gap concavity and increment lemmas.
scope and limits
- Does not derive explicit fermion mass values.
- Does not address the forcing chain from T0 through T8.
- Does not perform numerical comparison with experimental data.
- Does not treat complex or negative arguments beyond the stated domain.
used by (2)
depends on (2)
declarations in this module (20)
-
theorem
gap_zero -
theorem
gap_eq_log_phi_add_sub_one -
theorem
gap_strictMono_on_nonneg -
theorem
gap_24_lt_gap_276 -
theorem
gap_276_lt_gap_1332 -
def
gapR -
theorem
gapR_nat -
theorem
strictConcaveOn_gapR_Ici -
theorem
gap_diminishing_increments -
theorem
gap_second_difference_neg -
lemma
phi_bounds -
def
log_lower_bound_phi_hypothesis -
def
log_upper_bound_phi_hypothesis -
lemma
log_phi_bounds -
def
log_15p83_lower_hypothesis -
def
log_15p83_upper_hypothesis -
def
log_171p6_lower_hypothesis -
def
log_171p6_upper_hypothesis -
lemma
gap_24_bounds -
lemma
gap_276_bounds