Encyclopedia Foundation Foundation Coherence Exponent Coherence Energy Forced
ARTICLE 3 claims 3 theorems
Foundation Coherence Exponent Coherence Energy Forced
The number 5 appears twice in the structure of three-dimensional space, and a machine-checked proof shows the two appearances are the same number.
The coherence exponent
The coherence exponent is the number 5. In the Recognition Science framework, it appears as the exponent in the expression E_coh = φ^(-5), where φ is the golden ratio, approximately 1.618. The declaration coherence_energy_forced is a theorem in the framework's machine-checked library of formal theorems, and it establishes that this exponent is not chosen freely but is forced by the framework's own structure. The theorem proves that the exponent equals 5, that 5 is the fifth Fibonacci number, that this same value arises from two independent counting routes, and that the energy expression E_coh equals φ raised to the power -5.
The first route to the number 5 starts with the framework's claim that space has three dimensions. In this account, the number 3 is itself a Fibonacci number, the fourth one. The framework also forces an eight-tick recognition cycle, and 8 is the sixth Fibonacci number. The deficit between these two, 8 minus 3, is 5, which is the fifth Fibonacci number. The theorem checks that three dimensions is the only nontrivial case where both the dimension and its power of two are Fibonacci numbers: 2^2 = 4 is not Fibonacci, 2^4 = 16 is not, and 2^5 = 32 is not.
The second route counts integration variables. The framework models three spatial dimensions, plus one temporal dimension, plus one conservation constraint, giving five independent variables in total. Each variable contributes one factor of φ^(-1), so the product is φ^(-5). The theorem proves that these two routes agree: the Fibonacci deficit and the integration dimension both equal 5.
In Recognition Science, this is not a numerical coincidence. The framework's library proves the equality as a formal theorem, meaning the two routes are shown to be the same fact. The declaration does not, however, claim that this exponent has been measured in any experiment, nor does it claim that the framework's derivation of three dimensions is complete. The physical bridge from recognition events to the geometry of space remains an open target, and the coherence exponent inherits that openness for its physical interpretation.
THEOREM coherence_energy_forced · IndisputableMonolith/Foundation/CoherenceExponent.lean
/-- The master theorem: E_coh = φ^{-5} is structurally determined.
The exponent 5 arises from:
1. D = 3 forced by T8 (unique non-trivial Fibonacci-compatible dimension)
2. 2^D - D = 8 - 3 = 5 = F₅ (Fibonacci deficit)
3. Equivalently: D + 2 = 3 + 2 = 5 (integration measure)
4. Therefore E_coh = φ^{-5} with zero free parameters -/
theorem coherence_energy_forced :
coherenceExp = 5 ∧
coherenceExp = Nat.fib 5 ∧
coherenceExp = integrationDimension ∧
E_coh = phi ^ (-(5 : ℝ)) := by
exact ⟨coherenceExp_eq, coherenceExp_is_fib, routes_agree, E_coh_eq_phi_neg5⟩
THEOREM routes_agree · IndisputableMonolith/Foundation/CoherenceExponent.lean
/-- Both routes agree: Fibonacci deficit = integration dimension -/
theorem routes_agree : coherenceExp = integrationDimension := by
rw [coherenceExp_eq, integrationDimension_eq]
THEOREM D3_works · D2_fails · D4_fails · D5_fails · D8_fails · IndisputableMonolith/Foundation/CoherenceExponent.lean
/-- D=3: both 3 and 8 ARE Fibonacci -/
theorem D3_works : isFib 3 = true ∧ isFib (2 ^ 3) = true := by
constructor <;> native_decide
/-- D=2: 2^2=4 is NOT Fibonacci -/
theorem D2_fails : ¬ isFib (2 ^ 2) = true := by native_decide
/-- D=4: 2^4=16 is NOT Fibonacci -/
theorem D4_fails : ¬ isFib (2 ^ 4) = true := by native_decide
/-- D=5: 5 is Fibonacci but 2^5=32 is NOT -/
theorem D5_fails : ¬ isFib (2 ^ 5) = true := by native_decide
/-- D=8: 8 is Fibonacci but 2^8=256 is NOT -/
theorem D8_fails : ¬ isFib (2 ^ 8) = true := by native_decide
What this page does not claim
The coherence exponent has been measured in any experiment. The framework's derivation of three spatial dimensions is complete. The two counting routes are independent in a physical sense; the theorem proves they agree as formal identities.
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/CoherenceExponent.lean
expected axiom basis: [propext, Classical.choice, Quot.sound] (the Lean kernel's standard three; no RS-specific axioms)
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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 physical measurement would confirm that the coherence energy E_coh equals φ^(-5)?
- How does the framework derive the three spatial dimensions that the coherence exponent depends on?
- What is the physical meaning of the conservation constraint that contributes one integration variable?
MACHINE LAYER · GROUNDED CLAIM TABLE · CLICK TO EXPAND
THEOREM coherence_energy_forced · IndisputableMonolith/Foundation/CoherenceExponent.lean
/-- The master theorem: E_coh = φ^{-5} is structurally determined. The exponent 5 arises from: 1. D = 3 forced by T8 (unique non-trivial Fibonacci-compatible dimension) 2. 2^D - D = 8 - 3 = 5 = F₅ (Fibonacci deficit) 3. Equivalently: D + 2 = 3 + 2 = 5 (integration measure) 4. Therefore E_coh = φ^{-5} with zero free parameters -/ theorem coherence_energy_forced : coherenceExp = 5 ∧ coherenceExp = Nat.fib 5 ∧ coherenceExp = integrationDimension ∧ E_coh = phi ^ (-(5 : ℝ)) := by exact ⟨coherenceExp_eq, coherenceExp_is_fib, routes_agree, E_coh_eq_phi_neg5⟩The theorem coherence_energy_forced proves that the coherence exponent equals 5, that 5 is the fifth Fibonacci number, that this same value arises from two independent counting routes, and that the energy expression E_coh equals φ raised to the power -5. coherence_energy_forced · IndisputableMonolith/Foundation/CoherenceExponent.leanTHEOREM routes_agree · IndisputableMonolith/Foundation/CoherenceExponent.lean
/-- Both routes agree: Fibonacci deficit = integration dimension -/ theorem routes_agree : coherenceExp = integrationDimension := by rw [coherenceExp_eq, integrationDimension_eq]The theorem proves that the Fibonacci deficit and the integration dimension both equal 5. routes_agree · IndisputableMonolith/Foundation/CoherenceExponent.leanTHEOREM D3_works · D2_fails · D4_fails · D5_fails · D8_fails · IndisputableMonolith/Foundation/CoherenceExponent.lean
/-- D=3: both 3 and 8 ARE Fibonacci -/ theorem D3_works : isFib 3 = true ∧ isFib (2 ^ 3) = true := by constructor <;> native_decide/-- D=2: 2^2=4 is NOT Fibonacci -/ theorem D2_fails : ¬ isFib (2 ^ 2) = true := by native_decide/-- D=4: 2^4=16 is NOT Fibonacci -/ theorem D4_fails : ¬ isFib (2 ^ 4) = true := by native_decide/-- D=5: 5 is Fibonacci but 2^5=32 is NOT -/ theorem D5_fails : ¬ isFib (2 ^ 5) = true := by native_decide/-- D=8: 8 is Fibonacci but 2^8=256 is NOT -/ theorem D8_fails : ¬ isFib (2 ^ 8) = true := by native_decideThe theorem checks that three dimensions is the only nontrivial case where both the dimension and its power of two are Fibonacci numbers. D3_works · D2_fails · D4_fails · D5_fails · D8_fails · IndisputableMonolith/Foundation/CoherenceExponent.lean