Encyclopedia Foundation Foundation Pair Kernel Gap2a Remaining Physical Equality Residual
ARTICLE 4 claims 4 theorems
Foundation Pair Kernel Gap2a Remaining Physical Equality Residual
A machine-checked proof that the framework's current premises cannot yet decide which of two candidate physical scales is the real one, and that the smallest missing primitive is a single equality.
The remaining physical equality
In Recognition Science, the framework builds physical structure from a discrete record of recognition events, called the ledger. The framework's library, a machine-checked collection of formal theorems, has already established the carriers and the bridge that connects them. What remains is a single, sharply defined question: which real number is the physical source scale? The module called PairKernelGap2aRemainingPhysicalEqualityResidual proves that the current premises do not answer this question, and that the smallest missing piece is exactly one equality statement.
The module works with two candidate source scales, called candidate A and candidate B. Both candidates satisfy all the current premises after the common-type bridge is in place. The theorem currentPremisesAfterCommonTypeBridge_admit_distinct_candidates proves that there exist two distinct real numbers that both satisfy the premises. This means the premises alone cannot select a unique scale. The module then shows that the remaining physical equality, the statement that the physical source is identified with a unique cotangent coordinate, is equivalent to each of the other candidate selection principles, and that it selects candidate B while rejecting candidate A.
The central result is that this remaining physical equality is unforced. The theorem forcesRemainingPhysicalEqualityFromAfterBridge_unforced proves that the current premises do not imply the remaining physical equality. The module also proves that any law forced uniformly by the current premises cannot be scale-breaking. This is a precise statement about what the framework can and cannot do at this stage: it can rule out scale-breaking laws, but it cannot yet pick the scale.
The module names this missing piece the smallest missing physical primitive. It is exactly the remaining physical equality, not a strictly weaker parent. The structure MissingRemainingPhysicalEqualityPrimitive bundles the proof that this equality is the atom, that it is equivalent to the other candidate selection principles, that it is unforced by the post-bridge package, that both banked candidates are admitted, and that the exact J-conjugate coordinate and a decoy unit both fail to satisfy it. The theorem remainingPhysicalEquality_gap2a_residual certifies that this bundle is complete.
What this means in plain language is that the framework has reached a precise boundary. It has proved that the current premises are not enough to decide the physical source scale, and it has isolated the exact statement that would decide it. The module does not reopen earlier bridges, does not introduce new axioms, and does not touch constants. It banks the residual as a theorem-backed fact: the gap is real, and it is exactly one equality wide.
THEOREM currentPremisesAfterCommonTypeBridge_admit_distinct_candidates · IndisputableMonolith/Foundation/PairKernelGap2aRemainingPhysicalEqualityResidual.lean
theorem currentPremisesAfterCommonTypeBridge_admit_distinct_candidates :
∃ sourceScale₁ sourceScale₂ : ℝ,
sourceScale₁ ≠ sourceScale₂ ∧
CurrentPremisesAfterCommonTypeBridge sourceScale₁ ∧
CurrentPremisesAfterCommonTypeBridge sourceScale₂ :=
currentPremisesWithUniqueRealCotangent_admit_distinct_candidates
THEOREM forcesRemainingPhysicalEqualityFromAfterBridge_unforced · IndisputableMonolith/Foundation/PairKernelGap2aRemainingPhysicalEqualityResidual.lean
theorem forcesRemainingPhysicalEqualityFromAfterBridge_unforced :
¬ ForcesRemainingPhysicalEqualityFromAfterBridge :=
remainingPhysicalEquality_unforced_after_commonTypeBridge
THEOREM afterBridgeForcedLaw_cannot_be_scaleBreaking · IndisputableMonolith/Foundation/PairKernelGap2aRemainingPhysicalEqualityResidual.lean
/-- Any law forced uniformly by the post-bridge package cannot select a unique
scale among the banked candidates. -/
theorem afterBridgeForcedLaw_cannot_be_scaleBreaking
(law : ℝ → Prop)
(hforced :
∀ sourceScale : ℝ,
CurrentPremisesAfterCommonTypeBridge sourceScale →
law sourceScale) :
¬ IsScaleBreakingAttachmentLaw law := by
intro hbreaking
rcases hbreaking with ⟨selected, ⟨_hselPrem, _hselLaw⟩, honly⟩
have hA := hforced _
candidateA_satisfies_currentPremisesAfterCommonTypeBridge
have hB := hforced _
candidateB_satisfies_currentPremisesAfterCommonTypeBridge
have hAselected :
candidateA_sourceMagnitudeExpr.eval = selected :=
honly _
⟨candidateA_satisfies_currentRecognitionSourcePremises, hA⟩
have hBselected :
candidateB_sourceMagnitudeExpr.eval = selected :=
honly _
⟨candidateB_satisfies_currentRecognitionSourcePremises, hB⟩
exact
candidates_select_distinct_magnitudes
(hAselected.trans hBselected.symm)
THEOREM remainingPhysicalEquality_gap2a_residual · IndisputableMonolith/Foundation/PairKernelGap2aRemainingPhysicalEqualityResidual.lean
theorem remainingPhysicalEquality_gap2a_residual :
Gap2aRemainingPhysicalEqualityResidualCert where
common_type_bridge_available := commonTypeBridge_cert
distinct_candidates_admitted :=
currentPremisesAfterCommonTypeBridge_admit_distinct_candidates
no_unique_scale :=
currentPremisesAfterCommonTypeBridge_do_not_select_unique_scale
atom_iff_native_dual := remainingPhysicalEquality_iff_nativeActionDual
atom_iff_pulled_back_equals_noether :=
fun sourceScale a b hab =>
remainingPhysicalEquality_iff_pulledBackEqualsNoether
sourceScale a b hab
atom_unforced := forcesRemainingPhysicalEqualityFromAfterBridge_unforced
forced_laws_not_scale_breaking := afterBridgeForcedLaw_cannot_be_scaleBreaking
candidateA_fails_atom := remainingPhysicalEquality_rejects_candidateA
candidateB_satisfies_atom := remainingPhysicalEquality_selects_candidateB
missing_parent := missingRemainingPhysicalEqualityPrimitive
does_not_claim_gap2a_closure := trivial
What this page does not claim
This module does not prove that candidate A or candidate B is the actual physical scale. This module does not introduce a new axiom or modify the Constants.lean file. This module does not claim that the remaining physical equality is derivable from the current premises.
Verify this page
Every tagged claim above names its theorem. To check one yourself rather than trust this page, elaborate the source module with Lean 4 and audit its axiom basis:
$ lake env lean IndisputableMonolith/Foundation/PairKernelGap2aRemainingPhysicalEqualityResidual.lean
expected axiom basis: [propext, Classical.choice, Quot.sound] (the Lean kernel's standard three; no RS-specific axioms)
A page whose claims cannot be reproduced this way does not ship. In production, every anchor links to the exact declaration in the public source release, and this block carries the build receipt for the page itself.
Derived articles
This page is generated by a question-recursion engine: the questions its answers raise become the next pages. The current agenda, with open targets marked red:
- What new premise would force the remaining physical equality without being scale-breaking?
- How does the remaining physical equality relate to the framework's derivation of the golden ratio?
- What physical interpretation does the cotangent coordinate carry in the framework?
- How does the framework plan to resolve the gap between the two candidate scales?
MACHINE LAYER · GROUNDED CLAIM TABLE · CLICK TO EXPAND
THEOREM currentPremisesAfterCommonTypeBridge_admit_distinct_candidates · IndisputableMonolith/Foundation/PairKernelGap2aRemainingPhysicalEqualityResidual.lean
theorem currentPremisesAfterCommonTypeBridge_admit_distinct_candidates : ∃ sourceScale₁ sourceScale₂ : ℝ, sourceScale₁ ≠ sourceScale₂ ∧ CurrentPremisesAfterCommonTypeBridge sourceScale₁ ∧ CurrentPremisesAfterCommonTypeBridge sourceScale₂ := currentPremisesWithUniqueRealCotangent_admit_distinct_candidatesThe theorem currentPremisesAfterCommonTypeBridge_admit_distinct_candidates proves that there exist two distinct real numbers that both satisfy the premises. currentPremisesAfterCommonTypeBridge_admit_distinct_candidates · IndisputableMonolith/Foundation/PairKernelGap2aRemainingPhysicalEqualityResidual.leanTHEOREM forcesRemainingPhysicalEqualityFromAfterBridge_unforced · IndisputableMonolith/Foundation/PairKernelGap2aRemainingPhysicalEqualityResidual.lean
theorem forcesRemainingPhysicalEqualityFromAfterBridge_unforced : ¬ ForcesRemainingPhysicalEqualityFromAfterBridge := remainingPhysicalEquality_unforced_after_commonTypeBridgeThe theorem forcesRemainingPhysicalEqualityFromAfterBridge_unforced proves that the current premises do not imply the remaining physical equality. forcesRemainingPhysicalEqualityFromAfterBridge_unforced · IndisputableMonolith/Foundation/PairKernelGap2aRemainingPhysicalEqualityResidual.leanTHEOREM afterBridgeForcedLaw_cannot_be_scaleBreaking · IndisputableMonolith/Foundation/PairKernelGap2aRemainingPhysicalEqualityResidual.lean
/-- Any law forced uniformly by the post-bridge package cannot select a unique scale among the banked candidates. -/ theorem afterBridgeForcedLaw_cannot_be_scaleBreaking (law : ℝ → Prop) (hforced : ∀ sourceScale : ℝ, CurrentPremisesAfterCommonTypeBridge sourceScale → law sourceScale) : ¬ IsScaleBreakingAttachmentLaw law := by intro hbreaking rcases hbreaking with ⟨selected, ⟨_hselPrem, _hselLaw⟩, honly⟩ have hA := hforced _ candidateA_satisfies_currentPremisesAfterCommonTypeBridge have hB := hforced _ candidateB_satisfies_currentPremisesAfterCommonTypeBridge have hAselected : candidateA_sourceMagnitudeExpr.eval = selected := honly _ ⟨candidateA_satisfies_currentRecognitionSourcePremises, hA⟩ have hBselected : candidateB_sourceMagnitudeExpr.eval = selected := honly _ ⟨candidateB_satisfies_currentRecognitionSourcePremises, hB⟩ exact candidates_select_distinct_magnitudes (hAselected.trans hBselected.symm)The theorem afterBridgeForcedLaw_cannot_be_scaleBreaking proves that any law forced uniformly by the current premises cannot be scale-breaking. afterBridgeForcedLaw_cannot_be_scaleBreaking · IndisputableMonolith/Foundation/PairKernelGap2aRemainingPhysicalEqualityResidual.leanTHEOREM remainingPhysicalEquality_gap2a_residual · IndisputableMonolith/Foundation/PairKernelGap2aRemainingPhysicalEqualityResidual.lean
theorem remainingPhysicalEquality_gap2a_residual : Gap2aRemainingPhysicalEqualityResidualCert where common_type_bridge_available := commonTypeBridge_cert distinct_candidates_admitted := currentPremisesAfterCommonTypeBridge_admit_distinct_candidates no_unique_scale := currentPremisesAfterCommonTypeBridge_do_not_select_unique_scale atom_iff_native_dual := remainingPhysicalEquality_iff_nativeActionDual atom_iff_pulled_back_equals_noether := fun sourceScale a b hab => remainingPhysicalEquality_iff_pulledBackEqualsNoether sourceScale a b hab atom_unforced := forcesRemainingPhysicalEqualityFromAfterBridge_unforced forced_laws_not_scale_breaking := afterBridgeForcedLaw_cannot_be_scaleBreaking candidateA_fails_atom := remainingPhysicalEquality_rejects_candidateA candidateB_satisfies_atom := remainingPhysicalEquality_selects_candidateB missing_parent := missingRemainingPhysicalEqualityPrimitive does_not_claim_gap2a_closure := trivialThe theorem remainingPhysicalEquality_gap2a_residual certifies that this bundle is complete. remainingPhysicalEquality_gap2a_residual · IndisputableMonolith/Foundation/PairKernelGap2aRemainingPhysicalEqualityResidual.lean