theorem
proved
ilg_cmin_value
show as:
view math explainer →
open explainer
Read the cached plain-language explainer.
open lean source
IndisputableMonolith.ILG.CPMInstance on GitHub at line 178.
browse module
All declarations in this module, on Recognition.
explainer page
depends on
used by
formal source
175/-! ## Coercivity Results -/
176
177/-- The ILG coercivity constant is 49/162. -/
178theorem ilg_cmin_value : cmin ilgConstants = 49 / 162 := by
179 simp [cmin, ilgConstants]
180 norm_num
181
182/-- Positivity of ILG constants. -/
183theorem ilgConstants_pos :
184 0 < ilgConstants.Knet ∧ 0 < ilgConstants.Cproj ∧ 0 < ilgConstants.Ceng := by
185 refine ⟨?_, ?_, ?_⟩ <;> simp only [ilgConstants] <;> norm_num
186
187/-- The coercivity theorem for ILG: energy gap controls defect mass. -/
188theorem ilg_coercivity (P : KernelParams) (h_energy : EnergyControlHypothesis P) (s : ILGState) :
189 (ilgModel P h_energy).defectMass s ≤
190 ((ilgModel P h_energy).C.Knet * (ilgModel P h_energy).C.Cproj * (ilgModel P h_energy).C.Ceng) *
191 (ilgModel P h_energy).energyGap s :=
192 (ilgModel P h_energy).defect_le_constants_mul_energyGap s
193
194/-- Reverse coercivity: energy gap is at least c_min times defect. -/
195theorem ilg_reverse_coercivity (P : KernelParams) (h_energy : EnergyControlHypothesis P) (s : ILGState) :
196 (ilgModel P h_energy).energyGap s ≥ cmin (ilgModel P h_energy).C * (ilgModel P h_energy).defectMass s :=
197 (ilgModel P h_energy).energyGap_ge_cmin_mul_defect ilgConstants_pos s
198
199/-! ## Connection to RS Constants -/
200
201/-- The ILG exponent α matches the RS-canonical value. -/
202theorem ilg_alpha_eq_rs (tau0 : ℝ) (h : 0 < tau0) :
203 (rsKernelParams tau0 h).alpha = alphaLock := rfl
204
205/-- The eight-tick coercivity constant 49/162 matches the CPM prediction. -/
206theorem ilg_c_matches_cpm : (49 : ℝ) / 162 = cmin ilgConstants := by
207 rw [ilg_cmin_value]
208