c_pos
c_rs > 0 follows from the algebraic identity c_rs = 1 in RS-native units. Researchers deriving constants from the recognition composition law cite it to anchor positivity of c, ℏ, and G. The tactic proof rewrites via c_rs_eq_one then applies norm_num to verify the inequality.
claim$c_{RS} > 0$, where $c_{RS}$ is the ratio of fundamental length to the eight-tick period derived from the recognition composition law.
background
The ConstantDerivations module derives physical constants from the RS foundation rather than postulating them. Speed of light emerges as ℓ₀/τ₀ with τ₀ the eight-tick octave; upstream forcing chain yields J-uniqueness, φ as fixed point, and c_rs = 1 in native units. Module documentation states these constants are ratios algebraic in φ, not free parameters.
proof idea
One-line wrapper that rewrites the goal using c_rs_eq_one to obtain 1 > 0, then invokes norm_num to discharge the numerical inequality.
why it matters in Recognition Science
Supplies the c_pos hypothesis required by the Physical structure in Bridge.DataCore and by G_pos, kappa_einstein_pos in Constants. It closes the derivation step from the T0-T8 forcing chain to explicit constants c = 1, ℏ = φ^{-5}, G = φ^5 / π. Supports the claim that no free parameters enter at this level.
scope and limits
- Does not convert RS-native units to SI values.
- Does not derive the fine-structure constant α.
- Does not address higher-order corrections or stability.
- Does not prove uniqueness of the chosen native units.
formal statement (Lean)
110theorem c_pos : c_rs > 0 := by rw [c_rs_eq_one]; norm_num
proof body
Tactic-mode proof.
111
112/-! ## Planck's Constant: ℏ = E_coh · τ₀ -/
113
114/-- **Planck's reduced constant** in RS-native units.
115
116 ℏ is the product of coherence energy and fundamental time.
117 This sets the scale of the IR gate (minimum action for coherent state).
118
119 In RS-native units: ℏ = φ^(-5) · 1 = φ^(-5). -/
120noncomputable def ℏ_rs : ℝ := E_coh * τ₀
121
122/-- ℏ = φ^(-5) in RS-native units. -/
123theorem ℏ_rs_eq : ℏ_rs = φ_val^(-5 : ℤ) := by
124 unfold ℏ_rs E_coh τ₀
125 ring
126
127/-- ℏ > 0. -/
128theorem ℏ_pos : ℏ_rs > 0 := by
129 rw [ℏ_rs_eq]
130 exact zpow_pos phi_pos (-5)
131
132/-- ℏ is algebraic in φ. -/
133theorem ℏ_algebraic_in_φ : ∃ n : ℤ, ℏ_rs = φ_val^n := ⟨-5, ℏ_rs_eq⟩
134
135/-! ## Gravitational Constant: G -/
136
137/-- **Gravitational constant** in RS-native units.
138
139 G emerges as the curvature extremum in recognition geometry.
140 The derivation involves the holographic bound and ledger capacity.
141
142 G ~ ℓ₀³/(τ₀² · M₀) where M₀ is the fundamental mass.
143
144 In RS-native units with natural mass scale M₀ = 1/φ^5:
145 G = ℓ₀³ · φ^5 / τ₀² = 1 · φ^5 / 1 = φ^5. -/
used by (22)
-
lambda_rec_dimensionless_id_physical -
lambda_rec_pos -
Physical -
c_pos -
G_pos -
kappa_einstein_pos -
c_ne_zero -
c_pos -
ell_P_pos -
lambda_rec_over_ell_P -
lambda_rec_SI_pos -
Triangle -
DeLaValleePoussinZeroFreeRegion -
logZeroFreeStrip_of_deLaValleePoussin -
LogZeroFreeStrip -
riemannZeta_ne_zero_in_log_strip -
generated_phase_hit_gives_HitsBalancedPhase -
SubsetProductPhaseHit -
casimir_is_attractive -
temperature_from_surface_gravity -
bh_entropy_positive -
ConstantsPredictionsCert