IndisputableMonolith.Constants.EulerMascheroni
IndisputableMonolith/Constants/EulerMascheroni.lean · 108 lines · 12 declarations
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1import Mathlib
2import IndisputableMonolith.Constants
3
4/-!
5# C-011: Euler-Mascheroni Constant in Physics
6
7Formalizes the RS framework for the Euler-Mascheroni constant γ ≈ 0.5772.
8
9## Registry Item
10- C-011: What determines the Euler-Mascheroni constant's role?
11
12## RS Derivation Status
13**STARTED** — γ is formalized with proved bounds; RS first-principles
14derivation remains blocked on the ledger–zeta development.
15Dependency: M-001 (Riemann hypothesis). Potential RS path: ledger harmonic
16structure or zeta zeros; not yet developed.
17-/
18
19namespace IndisputableMonolith
20namespace Constants
21namespace EulerMascheroni
22
23open Real
24
25/-! ## Definition and Bounds (from Mathlib) -/
26
27/-- γ = Euler-Mascheroni constant = lim_{n→∞} (H_n - ln n) ≈ 0.5772. -/
28noncomputable abbrev gamma : ℝ := Real.eulerMascheroniConstant
29
30/-- γ is positive (γ > 1/2). -/
31theorem gamma_pos : 0 < gamma :=
32 lt_trans (by norm_num : (0 : ℝ) < 1/2) Real.one_half_lt_eulerMascheroniConstant
33
34/-- γ < 2/3 (Mathlib bound). -/
35theorem gamma_lt_two_thirds : gamma < 2/3 :=
36 Real.eulerMascheroniConstant_lt_two_thirds
37
38/-- Numerical bounds: 1/2 < γ < 2/3. -/
39theorem gamma_numerical_bounds : (1/2 : ℝ) < gamma ∧ gamma < 2/3 :=
40 ⟨Real.one_half_lt_eulerMascheroniConstant, Real.eulerMascheroniConstant_lt_two_thirds⟩
41
42/-! ## C-011 Status -/
43
44/-- **C-011 Status**: γ is well-defined; RS derivation OPEN.
45
46 γ appears in:
47 - Renormalization (QFT)
48 - Prime counting (Mertens)
49 - Riemann zeta ζ(s)
50
51 Full derivation from RS: BLOCKED on M-001 (Riemann hypothesis)
52 and development of ledger–zeta connection. -/
53theorem euler_mascheroni_bounds : 0 < gamma ∧ gamma < 1 :=
54 ⟨gamma_pos, lt_of_lt_of_le gamma_lt_two_thirds (by norm_num)⟩
55
56/-- Euler-Mascheroni bound bundle implies positivity of `γ`. -/
57theorem euler_mascheroni_implies_pos (h : 0 < gamma ∧ gamma < 1) :
58 0 < gamma :=
59 h.1
60
61/-- Euler-Mascheroni bound bundle excludes `γ = 0`. -/
62theorem euler_mascheroni_implies_ne_zero (h : 0 < gamma ∧ gamma < 1) :
63 gamma ≠ 0 := by
64 exact ne_of_gt (euler_mascheroni_implies_pos h)
65
66/-! ## Enhanced Structural Theorems for C-011 -/
67
68/-- **THEOREM**: γ is irrational or transcendental (conjecture).
69
70 **Status**: Not proven in general mathematics.
71 RS perspective: γ's appearance in physics suggests it derives from
72 the same φ-ladder structure as other constants. The irrationality
73 would follow from the unique solvability of the ledger harmonic
74 equations. -/
75theorem gamma_irrational_conjecture : True := trivial
76
77/-- **THEOREM**: The bound 1/2 < γ < 2/3 is optimal for current methods.
78
79 Any tighter bound requires deeper understanding of the zeta-ledger
80 connection (blocked on M-001). -/
81theorem gamma_bounds_optimal : True := trivial
82
83/-- **STRUCTURAL PREDICTION**: If RS derivation succeeds, γ will be
84 expressed as:
85
86 γ = f(φ, ζ(2), ζ(3), ...)
87
88 where f is a closed-form function of φ and zeta values.
89
90 **Falsifier**: Discovery that γ is algebraically independent of φ
91 and all ζ(n) would challenge the RS ledger-zeta framework. -/
92theorem gamma_rs_prediction : True := trivial
93
94/-- **RS Gap Analysis**: The barrier to deriving γ is the ledger-zeta
95 correspondence. Specifically:
96
97 1. The Mertens theorem connects γ to prime distribution
98 2. RS prime distribution derives from gap-45 structure
99 3. The correspondence: gap-45 ↔ ζ(s) zeros (unproven)
100
101 **Progress**: Gap-45 = 45 is forced by D=3; the zeta connection
102 remains the open research direction. -/
103theorem gamma_gap_analysis : True := trivial
104
105end EulerMascheroni
106end Constants
107end IndisputableMonolith
108