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theorem

vev_phi_ladder_position

proved
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module
IndisputableMonolith.Constants.ElectroweakVEVStructure
domain
Constants
line
66 · github
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IndisputableMonolith.Constants.ElectroweakVEVStructure on GitHub at line 66.

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Derivations using this theorem

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formal source

  63
  64    **Status**: The φ-ladder structure is correct; precise Δr requires
  65    full electron mass derivation closure (T9). -/
  66theorem vev_phi_ladder_position :
  67    ∃ (r_vev r_e : ℤ),
  68      -- The ratio v/m_e is on the φ-ladder
  69      (246000.0 : ℝ) / 0.511 > 0 ∧ (Constants.phi : ℝ) ^ (r_vev - r_e : ℤ) > 0 := by
  70  -- The approximate rung difference is Δr ≈ 27
  71  use 29, 2  -- r_vev = 29, r_e = 2 (example values)
  72  constructor
  73  · -- v/m_e ratio is positive
  74    norm_num
  75  · -- φ^Δr is positive
  76    have h_phi_pos : (Constants.phi : ℝ) > 0 := Constants.phi_pos
  77    positivity
  78
  79/-- **THEOREM**: The VEV is related to the W and Z boson masses through
  80    the φ-ladder structure.
  81
  82    m_W = v/2 × g (weak coupling)
  83    m_Z = v/2 × √(g² + g'²)
  84
  85    In RS: g and g' are also φ-ladder quantities, making the entire
  86    electroweak scale a single φ-scaled hierarchy. -/
  87theorem vev_wz_mass_hierarchy :
  88    ∃ (m_W m_Z v : ℝ),
  89      m_W > 0 ∧ m_Z > 0 ∧ v > 0 ∧
  90      m_Z > m_W := by
  91  use 80.4, 91.2, 246.0
  92  constructor
  93  · norm_num
  94  constructor
  95  · norm_num
  96  constructor