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extracted
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IndisputableMonolith.Foundation.ArithmeticOf on GitHub at line 197.
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depends on
used by
-
aggCoeff_flatMap -
toMoves -
extracted_peanoSurface -
logicNat_initial -
realizationFold -
realization_initial -
realizationLift_unique_fun -
ContinuityFromFiniteDescription -
RegularityCert -
StrictConvexityFromClosure -
GaugeLayer -
continuous_combiner_log_smoothness_bootstrap -
SatisfiesLawsOfLogicContinuous -
excluded_middle_implies_continuous -
modularRealization -
physics_faithful -
arithmeticOf -
toLightweight -
tendsto_exp_neg_mul_ofReal_atTop -
gap1_absorptive_not_stable -
Status -
rm2Closed_of_bet2 -
WitnessedDefectSensor -
phaseIncrementEpsilonBound_decreasing -
electron_structural_ratio -
page_entropy_max_at_half -
UnitsEqv -
YukawaNormalizationHypothesis -
yukawa_SM_phi_pow_scaling -
annularCost_nonneg -
eulerCarrierRadius_pos -
eulerScalarGap_pos -
physicallyRealizableLedger_not_boundaryApproaching
formal source
194 rw [realizationLift_unique_fun R B f, realizationLift_unique_fun R B g]
195
196/-- Arithmetic extracted from the realization's own identity-step orbit. -/
197def extracted (R : LogicRealization) : ArithmeticOf R where
198 peano := realizationPeano R
199 initial := realization_initial R
200
201/-- Peano surface for the extracted arithmetic of any realization. -/
202theorem extracted_peanoSurface (R : LogicRealization) :
203 PeanoSurface (extracted R) where
204 zero_ne_step := R.orbit_no_confusion
205 step_injective := R.orbit_step_injective
206 induction := R.orbit_induction
207
208/-- The natural equivalence between two initial Peano objects. -/
209noncomputable def equivOfInitial {R S : LogicRealization}
210 (A : ArithmeticOf R) (B : ArithmeticOf S) : A.peano.carrier ≃ B.peano.carrier where
211 toFun := (A.initial.lift B.peano).toFun
212 invFun := (B.initial.lift A.peano).toFun
213 left_inv := by
214 intro x
215 have hcomp :
216 (PeanoObject.Hom.comp (B.initial.lift A.peano) (A.initial.lift B.peano)).toFun =
217 (PeanoObject.Hom.id A.peano).toFun :=
218 A.initial.uniq A.peano
219 (PeanoObject.Hom.comp (B.initial.lift A.peano) (A.initial.lift B.peano))
220 (PeanoObject.Hom.id A.peano)
221 exact congrFun hcomp x
222 right_inv := by
223 intro y
224 have hcomp :
225 (PeanoObject.Hom.comp (A.initial.lift B.peano) (B.initial.lift A.peano)).toFun =
226 (PeanoObject.Hom.id B.peano).toFun :=
227 B.initial.uniq B.peano