alpha_bounds
The theorem establishes that the fine-structure constant satisfies 0 < α < 0.1 in RS-native units. Researchers deriving mass ladders or bounding radiative corrections cite it to constrain electromagnetic terms in the phi-ladder. The proof is a direct conjunction of the positivity lemma and the upper-bound lemma.
claimThe fine-structure constant satisfies $0 < α < 0.1$.
background
This declaration appears in the Constants Predictions Proved module, which supplies calculated bounds for registry items including C-001. The quantity α is supplied by the definition alpha := 1/alphaInv from the Alpha module. Upstream structures from LedgerFactorization, PhiForcingDerived, and SpectralEmergence supply the J-cost minimization and discrete tier setting in which constants arise.
proof idea
The term proof applies the constructor tactic to split the conjunction, then invokes the lemmas alpha_positive and alpha_lt_0_1 directly.
why it matters in Recognition Science
The bound fills the C-001 registry item and is invoked by downstream theorems in JCostPerturbation such as radiative_cubic_coeff_forced (forcing the cubic coefficient to 12) and step_mu_tau_linear_coeff_forced (forcing the linear coefficient to 37/2). It anchors the electromagnetic scale for the phi-ladder mass formulas and the alpha band (137.030, 137.039) within the T5–T8 forcing chain.
scope and limits
- Does not derive the numerical value of α or its inverse.
- Does not extend the bound to other constants such as G or c.
- Does not incorporate experimental CODATA data.
- Does not address higher-order radiative corrections beyond the stated inequality.
formal statement (Lean)
94theorem alpha_bounds : alpha > 0 ∧ alpha < (0.1 : ℝ) := by
proof body
Term-mode proof.
95 constructor
96 · exact alpha_positive
97 · exact alpha_lt_0_1
98
99/-! ## Section C-005: Speed of Light c -/
100
101/-- **CALCULATED**: c = 1 (RS-native units). -/
used by (15)
-
radiative_cubic_coeff_forced -
step_e_mu_quadratic_scale_forced -
step_mu_tau_denominator_forced -
step_mu_tau_kn_forced_under_dim_bound -
step_mu_tau_kn_forced_under_dim_bound_no_hk -
step_mu_tau_linear_coeff_forced -
step_mu_tau_numerator_offset_forced -
step_mu_tau_scale_forced -
step_mu_tau_scale_forced_no_hc_pos -
alpha_bounds -
alpha_cube_bounds -
alpha_sq_bounds -
step_mu_tau_bounds -
step_mu_tau_bounds_v2 -
step_mu_tau_bounds