IndisputableMonolith.Foundation.LogicRealConstants
Defines Recognition Science fundamental constants on the recovered real line: golden ratio, tick, eight-tick octave, J-bit, coherence energy, ħ, G, Einstein κ, and α⁻¹. Physics and cost modules that stay inside LogicReal import these rather than Mathlib ℝ. Transport lemmas identify each constant with its ordinary real value through the LogicReal equivalence.
claimOn the recovered real line $\mathrm{LogicReal}\simeq\mathbb{R}$, the module fixes RS-native constants $\varphi_L$, tick $\tau_L$, octave period $2^3$, $J_{\mathrm{bit},L}$, $E_{\mathrm{coh},L}$, $\hbar_L=\varphi_L^{-5}$, $G_L=\varphi_L^5/\pi$, Einstein $\kappa_L$, and $\alpha^{-1}_L\in(137.030,137.039)$, each paired with a transport equality to its Mathlib real value.
background
Recognition Science works on a recovered real line LogicReal, equivalent to Mathlib's $\mathbb{R}$ by LogicReal.equivReal. Transcendentals (exp, log, etc.) are already transported in LogicRealTranscendentals; this module is the constant layer on that same carrier.
RS-native units set $c=1$, with $\hbar=\varphi^{-5}$ and $G=\varphi^5/\pi$. The golden ratio $\varphi$ is the self-similar fixed point forced at T6; the eight-tick octave (period $2^3$) is T7. The EM certificate records $\alpha^{-1}=\alpha_{\mathrm{seed}}\exp(-f_{\mathrm{gap}}/\alpha_{\mathrm{seed}})$ with $\alpha_{\mathrm{seed}}=4\pi$ and $f_{\mathrm{gap}}=w_8\ln\varphi$, landing in $(137.030,137.039)$.
Named exports include $\varphi_L$, tick, octave, J-bit, coherence energy, $\hbar_L$, gravity, Einstein $\kappa$, and $\alpha^{-1}_L$, plus toReal_* bridges for the first few.
proof idea
Definition-and-transport module, not a theorem development. Each constant is introduced as a LogicReal value (typically by pulling the ordinary RS constant across the equivalence, or by composing already-transported transcendentals). Companion lemmas of the form toReal_phiL, toReal_tickL, toReal_octaveL are one-line transport identities: applying LogicReal.toReal recovers the Mathlib real constant already fixed in Constants / Constants.Alpha / EMAlphaCert. No independent analytic argument lives here.
why it matters in Recognition Science
Gives every later LogicReal-native development a single import for RS units instead of ad-hoc transports. Immediate consumer is Cost.JcostLogic, the reciprocal cost $J$ on recovered reals: that module mirrors Cost.JcostCore and reduces theorems through LogicReal.toReal, so it needs $\varphi_L$ and related yardsticks on the same carrier.
Anchors the forcing-chain landmarks T6 ($\varphi$) and T7 (eight-tick octave) inside the recovered line, and exposes the certified $\alpha^{-1}$ band for EM work without leaving LogicReal. Without this layer, cost and coupling proofs would repeatedly re-derive transport of constants.
scope and limits
- Does not derive φ, ħ, G, or α⁻¹; it only places already-fixed RS values on LogicReal.
- Does not prove LogicReal ≃ ℝ; that equivalence is assumed from upstream.
- Does not certify the infrared measurement α⁻¹(0)=137.035999, only the assembled band.
- Does not define the J-cost functional; that lives in Cost.JcostLogic.
- Does not address mass ladder rungs or Berry threshold beyond exporting constants.
used by (1)
depends on (4)
declarations in this module (25)
-
def
phiL -
def
tickL -
def
octaveL -
def
JbitL -
def
EcohL -
def
hbarL -
def
gravL -
def
kappaEinsteinL -
def
alphaInvL -
theorem
toReal_phiL -
theorem
toReal_tickL -
theorem
toReal_octaveL -
theorem
toReal_JbitL -
theorem
toReal_EcohL -
theorem
toReal_hbarL -
theorem
toReal_gravL -
theorem
toReal_kappaEinsteinL -
theorem
toReal_alphaInvL -
theorem
phiL_pos -
theorem
phiL_gt_one -
theorem
phiL_gt_onePointFive -
theorem
phiL_lt_onePointSixTwo -
theorem
hbarL_eq_phi_inv_fifth -
theorem
hbarL_bounds -
theorem
alphaInvL_bounds